mhurhangee/patent-ind-claim-en huggingface dataset:
A radio transmitting/receiving apparatus comprising: a reception unit adapted to receive, from a terminal apparatus , a measurement report indicative of a result of reception quality measurements taken at a femto cell contained in a macro cell; a handover request creating unit adapted to create a handover request for a femto cell of handover destination based on a physical cell ID and a unique cell ID of the femto cell of handover destination added to the measurement report, and a transmission unit adapted to transmit, to the terminal apparatus, an instruction for handover to the femto cell based on a response to the handover request from the femto cell of handover destination characterized by further comprising a storage unit adapted to store a network policy relating to a handover from a macro cell to a femto cell; and a control information creating unit adapted to create control information including the network policy, wherein the transmission unit is further adapted to transmit the control information to the terminal apparatus, an wherein the information included in the received measurement report is depending on the network policy. a reception unit adapted to receive, from a terminal apparatus , a measurement report indicative of a result of reception quality measurements taken at a femto cell contained in a macro cell; a handover request creating unit adapted to create a handover request for a femto cell of handover destination based on a physical cell ID and a unique cell ID of the femto cell of handover destination added to the measurement report, and a transmission unit adapted to transmit, to the terminal apparatus, an instruction for handover to the femto cell based on a response to the handover request from the femto cell of handover destination characterized by further comprising a storage unit adapted to store a network policy relating to a handover from a macro cell to a femto cell; and a control information creating unit adapted to create control information including the network policy, wherein the transmission unit is further adapted to transmit the control information to the terminal apparatus, an wherein the information included in the received measurement report is depending on the network policy.
Cupboard having a body with a plurality of functional units and an access opening via which the functional units can be operated, wherein at least one functional unit has a storage compartment, and wherein the body with the functional units is mounted displaceably along the access opening in such a way that the functional units can be operated alternately via the access opening, characterized in that one functional unit has a step and/or stairs .
An eyeglass lens processing system for sharing a target lens shape data of an eyeglass frame, the system comprising: a data-sharing server including storage unit for storing the target lens shape data; and a plurality of terminal devices for transferring the target lens shape data to the data-sharing server , characterized in that the data-sharing server is adapted to receive the target lens shape data from one of the plurality of terminal devices via a communication network and is adapted to transfer the received target lens shape data to another terminal device to update and share the target lens shape data among the plurality of terminal devices . a data-sharing server including storage unit for storing the target lens shape data; and a plurality of terminal devices for transferring the target lens shape data to the data-sharing server , characterized in that the data-sharing server is adapted to receive the target lens shape data from one of the plurality of terminal devices via a communication network and is adapted to transfer the received target lens shape data to another terminal device to update and share the target lens shape data among the plurality of terminal devices .
A method, comprising: receiving, by a source evolved node B configured to communicate with a user equipment from a neighbour evolved node B during X2 setup procedure, a multiple frequency band indicator list, wherein the multiple frequency band indicator list comprises at least one indicator number corresponding to an evolved universal terrestrial radio access absolute radio frequency channel number listed in a same order of priority as the neighbour evolved node B broadcasts the indicator number corresponding to at least one evolved universal terrestrial radio access absolute radio frequency channel number in a system information block; selecting one of the at least one evolved universal terrestrial radio access absolute radio frequency channel number for use by the source eNB with a highest priority that is also supported by a user equipment; and calculating a security key for the neighbour evolved node B using the selected one of the at least one evolved universal terrestrial radio access absolute radio frequency channel number. receiving, by a source evolved node B configured to communicate with a user equipment from a neighbour evolved node B during X2 setup procedure, a multiple frequency band indicator list, wherein the multiple frequency band indicator list comprises at least one indicator number corresponding to an evolved universal terrestrial radio access absolute radio frequency channel number listed in a same order of priority as the neighbour evolved node B broadcasts the indicator number corresponding to at least one evolved universal terrestrial radio access absolute radio frequency channel number in a system information block; selecting one of the at least one evolved universal terrestrial radio access absolute radio frequency channel number for use by the source eNB with a highest priority that is also supported by a user equipment; and calculating a security key for the neighbour evolved node B using the selected one of the at least one evolved universal terrestrial radio access absolute radio frequency channel number.
Greywater heat recovery system comprising a purification plant and a heat transfer device , wherein the purification plant is embodied to purify greywater from a greywater pipe , wherein the purification plant has an aeration tank with microorganisms, wherein the microorganisms decompose organic components of the greywater, wherein a filter membrane is arranged in the aeration tank , characterised in that an outlet of the purification plant is connected to the heat transfer device , wherein the heat transfer device is embodied to transfer heat energy from the grey water purified after flowing through the filter membrane to a fresh water in a fresh water line .
A projected capacitive touch sensor , the sensor comprising: a sensor grid including electrically conductive rows and electrically conductive columns , wherein the rows are arranged in a row layer and the columns are arranged in a column layer that is spaced apart from the row layer, the rows and the columns including electrically connected tiles , wherein each tile includes multiple electrically connected elements with pseudo-random orientation, wherein the disorder obtained by the pseudo-random orientation is sufficient to reduce a moire effect as an ordered display layer is overlaid with the sensor grid, and wherein projections of the tiles of the rows onto the column layer at least partially cover regions in the column layer that are not covered by tiles of the columns.
A speaker recognition system for assessing the identity of a speaker through a speech signal based on speech uttered by said speaker, the system comprising: - a framing module configured to subdivide said speech signal over time into a set of frames; - a filtering module configured to analyze the frames of the set to discard frames affected by noise and frames which do not comprise a speech, based on a spectral analysis of the frames; - a feature extraction module configured to extract audio features from frames which have not been discarded; - a classification module configured to process the audio features extracted from the frames which have not been discarded for assessing the identity of the speaker; wherein the filtering module comprises an energy estimator module configured to assess whether a frame has to be discarded based on how the spectral energy of said frame is distributed over frequency, characterized in that said filtering module is configured to discard a frame if the energy estimator module has assessed that said frame has to be discarded because said frame has a substantial amount of energy above an upper frequency threshold. - a framing module configured to subdivide said speech signal over time into a set of frames; - a filtering module configured to analyze the frames of the set to discard frames affected by noise and frames which do not comprise a speech, based on a spectral analysis of the frames; - a feature extraction module configured to extract audio features from frames which have not been discarded; - a classification module configured to process the audio features extracted from the frames which have not been discarded for assessing the identity of the speaker; wherein the filtering module comprises an energy estimator module configured to assess whether a frame has to be discarded based on how the spectral energy of said frame is distributed over frequency, characterized in that said filtering module is configured to discard a frame if the energy estimator module has assessed that said frame has to be discarded because said frame has a substantial amount of energy above an upper frequency threshold.
A submersible well pump assembly , comprising: a pump ; a motor ; a pressure equalizer housing between the pump and the motor , the housing having an axis , a motor end connector and a pump end connector ; a rotatable drive shaft extending within the housing on the axis through the motor end connector and the pump end connector ; a well fluid inlet path that admits well fluid into the housing ; a hub assembly in the housing through which the shaft extends, the hub assembly being pivotal about the axis relative to the housing ; a communication passage in the hub assembly that has a first opening in communication with lubricant in the motor and a second opening that is spaced laterally from the axis and in communication with the well fluid in the housing ; and a counterweight eccentrically mounted to the hub assembly that pivots the second opening of the communication passage above the axis while the axis is horizontal, characterised by a non rotating guide tube in the housing through which the shaft extends, and the hub assembly is pivotally mounted to the guide tube . a pump ; a motor ; a pressure equalizer housing between the pump and the motor , the housing having an axis , a motor end connector and a pump end connector ; a rotatable drive shaft extending within the housing on the axis through the motor end connector and the pump end connector ; a well fluid inlet path that admits well fluid into the housing ; a hub assembly in the housing through which the shaft extends, the hub assembly being pivotal about the axis relative to the housing ; a communication passage in the hub assembly that has a first opening in communication with lubricant in the motor and a second opening that is spaced laterally from the axis and in communication with the well fluid in the housing ; and a counterweight eccentrically mounted to the hub assembly that pivots the second opening of the communication passage above the axis while the axis is horizontal,
A method, comprising: receiving, by a user equipment connected to a base station in a wireless network, one or more parameters to be used by the user equipment to identify the user equipment for measurement modification; determining, by the user equipment, an estimate of a level of signal variation for signals received at the user equipment ; identifying, using at least the one or more parameters, the user equipment for measurement modification based at least on the estimate of the level of signal variation, wherein identifying the user equipment for measurement modification comprises determining that the user equipment is stationary and identifying the user equipment as suitable for measurement modification because the user equipment is stationary; and modifying, by the user equipment , a time between measurements for radio resource management from a current time to a different time in response to the user equipment being identified for measurement modification. receiving, by a user equipment connected to a base station in a wireless network, one or more parameters to be used by the user equipment to identify the user equipment for measurement modification; determining, by the user equipment, an estimate of a level of signal variation for signals received at the user equipment ; identifying, using at least the one or more parameters, the user equipment for measurement modification based at least on the estimate of the level of signal variation, wherein identifying the user equipment for measurement modification comprises determining that the user equipment is stationary and identifying the user equipment as suitable for measurement modification because the user equipment is stationary; and modifying, by the user equipment , a time between measurements for radio resource management from a current time to a different time in response to the user equipment being identified for measurement modification.
A Methylopila sp., which is classified and named as a cxzy-L013 strain of Methylopila sp., deposited in China Center for Type Culture Collection on September 18, 2016 under the conservation number CCTCC NO. M2016494.
A method for determining a status of a thermal chamber in a liquid chromatography system, the method comprising: receiving, by a computer system , a first temperature measurement from a first temperature sensor configured to sense the temperature of a heat sink located in the thermal chamber ; receiving, by the computer system , a second temperature measurement from a second temperature sensor configured to sense the temperature of the thermal chamber ; receiving, by the computer system , power information related to power utilized by a temperature control engine configured to maintain the temperature of the thermal chamber ; analyzing, by one or more processors of the computer system , the first and second temperature measurements and the power information; and determining, by the one or more processors , the status of the thermal chamber by determining the efficiency of the temperature control engine or determining whether ice has formed on the heat sink in the thermal chamber . receiving, by a computer system , a first temperature measurement from a first temperature sensor configured to sense the temperature of a heat sink located in the thermal chamber ; receiving, by the computer system , a second temperature measurement from a second temperature sensor configured to sense the temperature of the thermal chamber ; receiving, by the computer system , power information related to power utilized by a temperature control engine configured to maintain the temperature of the thermal chamber ; analyzing, by one or more processors of the computer system , the first and second temperature measurements and the power information; and determining, by the one or more processors , the status of the thermal chamber by determining the efficiency of the temperature control engine or determining whether ice has formed on the heat sink in the thermal chamber .
A method of manufacturing an organic polymer adsorbent, comprising: manufacturing an aqueous solution comprising a solvent, and a dispersing agent as an additive; manufacturing a monomer solution by dissolving maleic anhydride as an adsorbing constituent, toluene, a cross-linking agent, and a polymerization initiator in a solvent and then bubbling the same with nitrogen; mixing the monomer solution with the aqueous solution; synthesizing a cross-linked polymer for an adsorbent from the mixed solution through heating and agitation, wherein the agitation temperature is 65°C or greater; washing and drying the cross-linked polymer; and hydrolyzing the cross-linked polymer. manufacturing a monomer solution by dissolving maleic anhydride as an adsorbing constituent, toluene, a cross-linking agent, and a polymerization initiator in a solvent and then bubbling the same with nitrogen; mixing the monomer solution with the aqueous solution; synthesizing a cross-linked polymer for an adsorbent from the mixed solution through heating and agitation, wherein the agitation temperature is 65°C or greater; washing and drying the cross-linked polymer; and hydrolyzing the cross-linked polymer.
A method characterized by : measuring a consumption time for content received in a mobile device from a cellular network, the consumption time representing a time interval that is measured from a time at which the content is received in the mobile device to a time at which content associated with the received content is consumed at an output sink of the mobile device, wherein the associated content comprises content processed by the mobile device; and regulating a power consumption state of a cellular radio of the mobile device based at least in part on a rate at which the received content flows through the mobile device . measuring a consumption time for content received in a mobile device from a cellular network, the consumption time representing a time interval that is measured from a time at which the content is received in the mobile device to a time at which content associated with the received content is consumed at an output sink of the mobile device, wherein the associated content comprises content processed by the mobile device; and regulating a power consumption state of a cellular radio of the mobile device based at least in part on a rate at which the received content flows through the mobile device .
A ceramic filter module for water-treating comprising a filter unit , and a housing containing said filter unit ; characterized in that said filter unit comprises pluralities of cylindrical honeycomb structures (11, 11', 11") each having pluralities of flow paths (13, 13', 13") partitioned by porous ceramic cell walls and extending in one axial direction of said honeycomb structures (11, 11', 11"), and sheet-shaped connecting members connecting said honeycomb structures (11, 11', 11") in series in the flow path direction; each of said connecting members has pluralities of penetrating holes for achieving the communication of the corresponding flow paths (13, 13', 13") of adjacent honeycomb structures (11 and 11', and 11' and 11"), to constitute pluralities of communicating flow paths ; said communicating flow paths are composed of first communicating flow paths plugged only at one-side end , and second communicating flow paths plugged only at the other-side end ; and said housing has an inlet on the side of said one-side end for receiving water to be treated from outside, and an outlet on the side of said other-side end for discharging the treated water, wherein said connecting members are made of an elastic material, and wherein said connecting member has projections on both surfaces, said projections being fit into particular flow paths (13, 13', 13") open on the end surfaces of the adjacent honeycomb structures (11 and 11', and 11' and 11") to connect said adjacent honeycomb structures (11 and 11', and 11' and 11"). each of said connecting members has pluralities of penetrating holes for achieving the communication of the corresponding flow paths (13, 13', 13") of adjacent honeycomb structures (11 and 11', and 11' and 11"), to constitute pluralities of communicating flow paths ; said communicating flow paths are composed of first communicating flow paths plugged only at one-side end , and second communicating flow paths plugged only at the other-side end ; and said housing has an inlet on the side of said one-side end for receiving water to be treated from outside, and an outlet on the side of said other-side end for discharging the treated water, wherein said connecting members are made of an elastic material, and wherein said connecting member has projections on both surfaces, said projections being fit into particular flow paths (13, 13', 13") open on the end surfaces of the adjacent honeycomb structures (11 and 11', and 11' and 11") to connect said adjacent honeycomb structures (11 and 11', and 11' and 11").
A method for establishing a roof construction for a thatched roof comprising: - placing an underlay directly upon the laths and/or rafters of the roof construction; - placing a first type of mineral fibrous sheet material having a width of 20-100 cm along the side edges and eaves of said roof construction; - thatching said roof construction from the eaves and upwards; - placing a first type of mineral fibrous sheet material having a width of 20-100 cm along the ridge of said roof construction; and - thatching said ridge; wherein said first type of mineral fibrous sheet material has a Temperature Index measured according to ISO 4589-3:2017 of 400 degrees Celsius or higher, wherein said first type of mineral fibrous sheet material has a thickness of at most 1 mm, and wherein the mineral fibers forming said first type of mineral fibrous sheet material are coated with a coating adapted for retarding fire. - placing an underlay directly upon the laths and/or rafters of the roof construction; - placing a first type of mineral fibrous sheet material having a width of 20-100 cm along the side edges and eaves of said roof construction; - thatching said roof construction from the eaves and upwards; - placing a first type of mineral fibrous sheet material having a width of 20-100 cm along the ridge of said roof construction; and - thatching said ridge; wherein said first type of mineral fibrous sheet material has a Temperature Index measured according to ISO 4589-3:2017 of 400 degrees Celsius or higher, wherein said first type of mineral fibrous sheet material has a thickness of at most 1 mm, and wherein the mineral fibers forming said first type of mineral fibrous sheet material are coated with a coating adapted for retarding fire.
A method of cleaning and/or disinfecting pipelines and/or for disinfecting drinking water in a pipeline system, wherein at least one fluid cleaning medium is used which is produced from at least one fluid medium, wherein for this the pH value of the fluid medium is set to a value of between 5.0 and 8.0, more particularly between 5.5 and 7.5 and preferably between 5.5 and 6.5, wherein at last one hypochlorite source and/or at least one peroxide source is added to the fluid medium, wherein the fluid cleaning medium produced in way is fed into a pipeline system , characterised in that the setting of the pH value takes place in a mixing reactor through the addition of carbon dioxide, wherein the added quantity of carbon dioxide is controlled and/or regulated as a function of the determined pH value, wherein the pH value of the fluid medium is determined downstream of the mixing reactor and wherein the addition of hypochlorite and/or peroxide source takes place after setting and after determination of the pH value.