mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for controlling microorganisms in a body of water, said apparatus having a housing (414-A, 414-B, 416-A, 416-B) that is waterproof and configured to be supported a specified distance below a surface of a liquid, said apparatus comprising: a transducer assembly (224-A) configured to emit ultrasonic waves along a first axis and along a second axis, said first axis perpendicular to said second axis, said transducer assembly (224-A) inside the housing (414-A, 414-B, 416-A, 416-B); and a driver circuit electrically connected to said transducer assembly (224-A), said driver circuit configured to control at least one operating characteristic of said transducer assembly (224-A), characterized in that said transducer assembly (224-A) includes a first transducer (214-A) and a second transducer (214-B), said first transducer (214-A) emitting in opposing directions along said first axis for at least 180 degree coverage and said second transducer (214-B) emitting in opposing directions along said second axis for at least 180 degree coverage so as to provide substanltially full 360 degree coverage, each including a piezoelectric element and a pair of blocks attached to opposing faces of said piezoelectric element . a transducer assembly (224-A) configured to emit ultrasonic waves along a first axis and along a second axis, said first axis perpendicular to said second axis, said transducer assembly (224-A) inside the housing (414-A, 414-B, 416-A, 416-B); and a driver circuit electrically connected to said transducer assembly (224-A), said driver circuit configured to control at least one operating characteristic of said transducer assembly (224-A), characterized in that said transducer assembly (224-A) includes a first transducer (214-A) and a second transducer (214-B), said first transducer (214-A) emitting in opposing directions along said first axis for at least 180 degree coverage and said second transducer (214-B) emitting in opposing directions along said second axis for at least 180 degree coverage so as to provide substanltially full 360 degree coverage, each including a piezoelectric element and a pair of blocks attached to opposing faces of said piezoelectric element .
A method for device-to-device (D2D) offloading in long term evolution (LTE) networks; said method comprising processor implemented steps of: a. selecting an offloader (104 D) by a eNodeB (eNB) for a user device (104 C) out of a plurality of user devices (104 A, 104 B, 104 C and 104 D) based on location of the user device (104 C) and other closed proximity user devices (104 A, 104 B, and 104 D) out of the plurality of user devices (104 A, 104 B, 104 C and 104 D), corresponding load and channel conditions upon receiving the offloading request from the user device (104 C); b. exchanging a control messages between the user device (104 C) and the eNB ; and between the eNB and the offloader (104 D); and c. scheduling of resource blocks (RBs) by the eNB for the user device (104 C) and the offloader (104 D) in D2D offloading, wherein scheduling of the resource blocks (RBs) include the eNB assigning a fixed modulation scheme to uplink communication between the plurality of user devices (104 A, 104 B, 104 C and 104 D) and the eNB . a. selecting an offloader (104 D) by a eNodeB (eNB) for a user device (104 C) out of a plurality of user devices (104 A, 104 B, 104 C and 104 D) based on location of the user device (104 C) and other closed proximity user devices (104 A, 104 B, and 104 D) out of the plurality of user devices (104 A, 104 B, 104 C and 104 D), corresponding load and channel conditions upon receiving the offloading request from the user device (104 C); b. exchanging a control messages between the user device (104 C) and the eNB ; and between the eNB and the offloader (104 D); and c. scheduling of resource blocks (RBs) by the eNB for the user device (104 C) and the offloader (104 D) in D2D offloading, wherein scheduling of the resource blocks (RBs) include the eNB assigning a fixed modulation scheme to uplink communication between the plurality of user devices (104 A, 104 B, 104 C and 104 D) and the eNB .
Temperature sensor circuit for measuring a temperature, comprising a measurement resistor and a controllable voltage source or current source which is connected to the measurement resistor and can be used to apply an input voltage to the measurement resistor , wherein the input voltage can be adjusted continuously using the controllable voltage source or current source , characterized in that the current flowing through the temperature sensor circuit is adjusted by means of pulses of the variable voltage supply in such a manner that the self-heating of the sensor is reduced and the measurement accuracy is increased. characterized in that the current flowing through the temperature sensor circuit is adjusted by means of pulses of the variable voltage supply in such a manner that the self-heating of the sensor is reduced and the measurement accuracy is increased.
A method , performed by a remote User Equipment, UE, for obtaining a direct communication key for direct communication over an interface, with a device comprising a UE-to-Network Relay, the method comprising: establishing a UE shared key with a Bootstrapping Server Function, BSF, using a Generic Bootstrapping Architecture, GBA, procedure, and receiving from the BSF a transaction identifier associated with the UE shared key; sending the transaction identifier and a Direct Communication Element identifier to the device and requesting the device to obtain the direct communication key from a Direct Communication Element identified by the Direct Communication Element identifier; receiving from the device the direct communication key encrypted with a UE delivery key, wherein the direct communication key is generated by the Direct Communication Element using a random number generator, and wherein the UE delivery key is unique to the UE and the device ; deriving a session shared key from at least the UE shared key and the Direct Communication Element identifier; deriving the UE delivery key from at least the session shared key and an identifier of the device ; and decrypting the direct communication key using the derived UE delivery key. establishing a UE shared key with a Bootstrapping Server Function, BSF, using a Generic Bootstrapping Architecture, GBA, procedure, and receiving from the BSF a transaction identifier associated with the UE shared key; sending the transaction identifier and a Direct Communication Element identifier to the device and requesting the device to obtain the direct communication key from a Direct Communication Element identified by the Direct Communication Element identifier; receiving from the device the direct communication key encrypted with a UE delivery key, wherein the direct communication key is generated by the Direct Communication Element using a random number generator, and wherein the UE delivery key is unique to the UE and the device ; deriving a session shared key from at least the UE shared key and the Direct Communication Element identifier; deriving the UE delivery key from at least the session shared key and an identifier of the device ; and decrypting the direct communication key using the derived UE delivery key.
System for controlling a heat treatment furnace or an endothermic gas generator, the system comprising: a heat treatment furnace or an endothermic gas generator ; a controller coupled to the furnace or the gas generator for controlling one or more operating parameters thereof as a function of a set point value of carbon potential or dew point; and a human machine interface coupled to the controller; wherein the human machine interface is adapted to enable the user to enter a measured value of an actual carbon potential or dew point of the furnace or gas generator; said controller characterized by including a memory storing computer-executable instructions that, when executed, generate a compensation factor, the controller adjusting at least one of the one or more operating parameters based on the compensation factor, the computer-executable instructions comprising: transforming a numerical equation for calculating the compensation factor into a homogeneous form; after said transforming, iteratively solving the transformed equation to determine a value of the compensation factor that minimizes a difference between the set point value of carbon potential or dew point and the actual carbon potential or dew point entered directly via the human machine interface . a heat treatment furnace or an endothermic gas generator ; a controller coupled to the furnace or the gas generator for controlling one or more operating parameters thereof as a function of a set point value of carbon potential or dew point; and a human machine interface coupled to the controller; wherein the human machine interface is adapted to enable the user to enter a measured value of an actual carbon potential or dew point of the furnace or gas generator; said controller characterized by including a memory storing computer-executable instructions that, when executed, generate a compensation factor, the controller adjusting at least one of the one or more operating parameters based on the compensation factor, the computer-executable instructions comprising: transforming a numerical equation for calculating the compensation factor into a homogeneous form; after said transforming, iteratively solving the transformed equation to determine a value of the compensation factor that minimizes a difference between the set point value of carbon potential or dew point and the actual carbon potential or dew point entered directly via the human machine interface . transforming a numerical equation for calculating the compensation factor into a homogeneous form; after said transforming, iteratively solving the transformed equation to determine a value of the compensation factor that minimizes a difference between the set point value of carbon potential or dew point and the actual carbon potential or dew point entered directly via the human machine interface .
Computer program for constructing a digital representation of a physical environment on a mobile device, comprising: a user input module configured to receive user input data through a user interface; a camera and sensor module configured to receive image data from a camera and depth information from a depth sensor or to receive image data and depth information from a depth camera; a structural model generator module configured to receive the user input data from the user input module and the image data and the depth information from the camera and sensor module ; wherein the structural model generator module is further configured: to combine the user input data and the image data and the depth information to generate a structural model of the physical environment, wherein the structural model comprises at least one modeled structure; and to associate the at least one modeled structure with semantic information based on the user input data, wherein the semantic information is configured to define at least one function of the at least one modeled structure, wherein the at least one function comprises at least one of: a transparency, a rotation vector, a range of turn, a positional constraint and a sliding direction vector. a user input module configured to receive user input data through a user interface; a camera and sensor module configured to receive image data from a camera and depth information from a depth sensor or to receive image data and depth information from a depth camera; a structural model generator module configured to receive the user input data from the user input module and the image data and the depth information from the camera and sensor module ; wherein the structural model generator module is further configured: to combine the user input data and the image data and the depth information to generate a structural model of the physical environment, wherein the structural model comprises at least one modeled structure; and to associate the at least one modeled structure with semantic information based on the user input data, wherein the semantic information is configured to define at least one function of the at least one modeled structure, wherein the at least one function comprises at least one of: a transparency, a rotation vector, a range of turn, a positional constraint and a sliding direction vector. to combine the user input data and the image data and the depth information to generate a structural model of the physical environment, wherein the structural model comprises at least one modeled structure; and to associate the at least one modeled structure with semantic information based on the user input data, wherein the semantic information is configured to define at least one function of the at least one modeled structure, wherein the at least one function comprises at least one of: a transparency, a rotation vector, a range of turn, a positional constraint and a sliding direction vector.
A system comprising: a plurality of battery submodules including a first battery submodule and a second battery submodule ; a support structure coupled to the plurality of battery submodules, the support structure including: a first o-ring provided on a first surface of the support structure around the first battery submodule; and a second o-ring provided on a second surface opposite to the first surface of the support structure around the second battery submodule, an opening for receiving a portion of the first battery submodule and a portion of the second battery submodule, wherein the opening extends between the first o-ring and the second o-ring; a channel formed within the opening between the portion of the first battery submodule and the portion of the second battery submodule; an inlet provided on a top surface of the support structure adapted to receive a fluid; an outlet provided on a bottom surface of the support structure adapted to receive the fluid after the fluid travels through the channel in direction of gravity, wherein the channel extends between the inlet and the outlet. a plurality of battery submodules including a first battery submodule and a second battery submodule ; a support structure coupled to the plurality of battery submodules, the support structure including: a first o-ring provided on a first surface of the support structure around the first battery submodule; and a second o-ring provided on a second surface opposite to the first surface of the support structure around the second battery submodule, an opening for receiving a portion of the first battery submodule and a portion of the second battery submodule, wherein the opening extends between the first o-ring and the second o-ring; a channel formed within the opening between the portion of the first battery submodule and the portion of the second battery submodule; an inlet provided on a top surface of the support structure adapted to receive a fluid; an outlet provided on a bottom surface of the support structure adapted to receive the fluid after the fluid travels through the channel in direction of gravity, wherein the channel extends between the inlet and the outlet. a first o-ring provided on a first surface of the support structure around the first battery submodule; and a second o-ring provided on a second surface opposite to the first surface of the support structure around the second battery submodule, an opening for receiving a portion of the first battery submodule and a portion of the second battery submodule, wherein the opening extends between the first o-ring and the second o-ring; a channel formed within the opening between the portion of the first battery submodule and the portion of the second battery submodule; an inlet provided on a top surface of the support structure adapted to receive a fluid; an outlet provided on a bottom surface of the support structure adapted to receive the fluid after the fluid travels through the channel in direction of gravity, wherein the channel extends between the inlet and the outlet.
A method of testing a water-treatment membrane after hypochlorite treatment by its discoloration, the water-treatment membrane comprising: a porous support ; a polyamide active layer provided on the porous support and including chlorine on a surface thereof, characterized in that CIE L*a*b* color coordinate values after storing for 30 days or longer at 25°C to 80°C satisfy the following [Equation 1] to [Equation 3] 91 < L * < 97 − 1.5 < a * < 1.5 − 1.5 < b * < 8 .
A rubber composition, wherein, an integrated value of White areas by particles for diameter of 29 μm or more is 15% or less of an integrated value of White areas by particles for diameter from 3 to 57 μm, and a value of (White Area%) × (integrated value of white areas by particles for diameter of 29 μm or more)/(integrated value of white areas by particles for diameter from 3 to 57 μm) is 0.2% or less in an examination of a cross section of the rubber composition with a dispergrader based on ASTM D7723; and a total content of zinc oxide, a fatty acid, and a zinc salt of fatty acid is 2 parts by weight or more and less than 13 parts by weight per 100 parts by weight of a rubber.
Method for influencing the appliance-typical sound emission of a cleaning appliance , the cleaning appliance having an appliance housing and a cleaning device for carrying out a cleaning activity on a surface to be cleaned, the cleaning appliance emitting appliance-typical sound when carrying out the cleaning activity, wherein the appliance-typical sound is detected and analyzed with respect to at least one sound frequency contained therein, characterized in that a displaceable section assigned to a flow channel of the cleaning appliance is displaced relative to the flow channel and/or the appliance housing in dependence on the analysis result, until a sound frequency emitted by the cleaning device and characteristic of the cleaning activity has a defined amplitude.
A transportable hot mix asphalt plant apparatus, comprising: a first vehicle having an aggregate collector conveyor, a plurality of aggregate storage bins disposed above the aggregate collector conveyor, the aggregate collector conveyor having a collector belt weigh scale disposed at an output end, the output end discharging onto an aggregate collector belt extension ; and a second vehicle having a counter-flow aggregate rotary dryer and mixer , the counter-flow aggregate rotary dryer and mixer receiving aggregate from a discharge end of the aggregate collector belt extension , and a support stand supporting a storage hopper , characterized in that : the aggregate storage bins are each equipped with a variable speed aggregate feeder belt discharging onto a vibrating screen , and the second vehicle includes a folding hot mix asphalt elevating drag slat conveyor to convey asphalt mix to the storage hopper , and a self-erecting frame for the hot mix asphalt elevating drag slat conveyor . a first vehicle having an aggregate collector conveyor, a plurality of aggregate storage bins disposed above the aggregate collector conveyor, the aggregate collector conveyor having a collector belt weigh scale disposed at an output end, the output end discharging onto an aggregate collector belt extension ; and a second vehicle having a counter-flow aggregate rotary dryer and mixer , the counter-flow aggregate rotary dryer and mixer receiving aggregate from a discharge end of the aggregate collector belt extension , and a support stand supporting a storage hopper , characterized in that : the aggregate storage bins are each equipped with a variable speed aggregate feeder belt discharging onto a vibrating screen , and the second vehicle includes a folding hot mix asphalt elevating drag slat conveyor to convey asphalt mix to the storage hopper , and a self-erecting frame for the hot mix asphalt elevating drag slat conveyor . the aggregate storage bins are each equipped with a variable speed aggregate feeder belt discharging onto a vibrating screen , and the second vehicle includes a folding hot mix asphalt elevating drag slat conveyor to convey asphalt mix to the storage hopper , and a self-erecting frame for the hot mix asphalt elevating drag slat conveyor .
A process for preparing citrus fibers from citrus pulp, the process comprising a. treating citrus pulp using pressure homogenization to obtain homogenized citrus pulp; b. washing the homogenized citrus pulp with an organic solvent to obtain organic solvent washed citrus pulp; c. desolventizing and drying the organic solvent washed citrus pulp; and d. recovering citrus fiber therefrom. a. treating citrus pulp using pressure homogenization to obtain homogenized citrus pulp; b. washing the homogenized citrus pulp with an organic solvent to obtain organic solvent washed citrus pulp; c. desolventizing and drying the organic solvent washed citrus pulp; and d. recovering citrus fiber therefrom.
A porous hollow fiber membrane for the treatment of a protein-containing liquid, characterized in that the membrane comprises a hydrophobic polymer that is a poly sulfone or a polyether sulfone and a hydrophilic polymer that is polyvinylpyrrolidone, its pure water flux determined as described in the description and calculated by formula is 10 to 300 L/(h•m 2 •bar) and, when a 0.5% immunoglobulin solution is subjected to filtration at a constant pressure of 1.0 bar for 60 minutes in dead-end filtration mode, its filtration time and accumulated amount of recovered filtrate are substantially in a linear relation; wherein substantially in a linear relation means that the determinant coefficient R 2 of a regression straight line, obtained by a least-squares method upon plotting of at least 6 points where the filtration time is on the abscissa and the accumulated amount of recovered filtrate is on the ordinate, is not less than 0.95, when the filtration time and accumulated amount of recovered filtrate are measured as described in the description; wherein the inner diameter is 150 to 400 μm and the membrane thickness is 40 to 200 μm; and wherein the permeation rate for immunoglobulin determined as described in the description is 95% or more, pure water flux = V / t / A / ΔP with V being the amount of filtrate (L), t being the filtration time (h), A being the membrane area of the mini-modul (m 2 ) and ΔP being the pressure difference (bar) calculated by formula Δ P = Pi + Po / 2 with Pi being the pressure at the inlet for lumen and Po being the pressure at the outlet for lumen.