mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting control system comprising: lighting devices ; and a lighting control apparatus comprising a communication module to make communication with the lighting devices , and a control module to transmit registration request signal to the lighting devices , to receive response message corresponding to the registration request signal from at least one of the lighting devices , and to register at least one of the lighting devices according to the received signal strength of the response message, wherein the response message includes intrinsic identification data of a lighting device which transmits the response message, wherein the lighting control apparatus is configured to store the identification data included in the response message to register the lighting devices , wherein the lighting control apparatus is configured to determine one of the lighting devices as a reference lighting device according to the received signal strength, and wherein the reference lighting device is configured to transmit a peripheral search signal to the other lighting devices according to a command of the lighting control apparatus , receive a peripheral response message corresponding to the peripheral search signal from at least one of the other lighting devices , and transmit the peripheral response message to the lighting control apparatus ; wherein the lighting control apparatus is configured to receiving the peripheral response message transmitted from the reference lighting device , and individually controlling the reference lighting device and the other lighting devices . lighting devices ; and a lighting control apparatus comprising a communication module to make communication with the lighting devices , and a control module to transmit registration request signal to the lighting devices , to receive response message corresponding to the registration request signal from at least one of the lighting devices , and to register at least one of the lighting devices according to the received signal strength of the response message, wherein the response message includes intrinsic identification data of a lighting device which transmits the response message, wherein the lighting control apparatus is configured to store the identification data included in the response message to register the lighting devices , wherein the lighting control apparatus is configured to determine one of the lighting devices as a reference lighting device according to the received signal strength, and wherein the reference lighting device is configured to transmit a peripheral search signal to the other lighting devices according to a command of the lighting control apparatus , receive a peripheral response message corresponding to the peripheral search signal from at least one of the other lighting devices , and transmit the peripheral response message to the lighting control apparatus ; wherein the lighting control apparatus is configured to receiving the peripheral response message transmitted from the reference lighting device , and individually controlling the reference lighting device and the other lighting devices .
A computer-implemented method for estimating a production prediction of a target well of a field, wherein a target well is a well with unknown production data, the method comprising: computing , based on a plurality of production time series from a plurality of training wells of the field, a plurality of smoothed production history curves , wherein a training well is a well with known production data and the production time series is a time series of data characterizing the training well production over time and wherein the plurality of smoothed production history curves each correspond to a training well of the plurality of training wells; selecting , based on the plurality of smoothed production history curves , a fitting function defined by a set of fitting coefficients; determining , by a machine learning process, based on a set of well parameters for each training well, a set of predicted fitting coefficients as a function of a set of well parameters of the target well, wherein the set of well parameters is a set of mechanical specifications and operating parameters that define a well operating condition; applying the predicted fitting coefficients to the fitting function to compute a normalized production prediction curve for the target well; and presenting the normalized production prediction curve to a user for analysis and decision making related to the production operations in the field. computing , based on a plurality of production time series from a plurality of training wells of the field, a plurality of smoothed production history curves , wherein a training well is a well with known production data and the production time series is a time series of data characterizing the training well production over time and wherein the plurality of smoothed production history curves each correspond to a training well of the plurality of training wells; selecting , based on the plurality of smoothed production history curves , a fitting function defined by a set of fitting coefficients; determining , by a machine learning process, based on a set of well parameters for each training well, a set of predicted fitting coefficients as a function of a set of well parameters of the target well, wherein the set of well parameters is a set of mechanical specifications and operating parameters that define a well operating condition; applying the predicted fitting coefficients to the fitting function to compute a normalized production prediction curve for the target well; and presenting the normalized production prediction curve to a user for analysis and decision making related to the production operations in the field.
An apparatus for additive manufacturing of at least one object , the apparatus comprising: a build chamber having a powder reservoir , a lower build plate , and a build insert that restricts the effective size of a powder bed to one or more smaller build zones above the build plate , the build insert having at least a first opening with one or more walls defining a first build area within the build insert , the first build area being smaller than the area of the build chamber, wherein the build insert is laterally offset from the powder reservoir ; a first build support adapted to support powder within the first build area, the first build support configured to step downward within the first build area as the at least one object is being built layer-by-layer; a connecting rod extending between the build platform and the first build support , wherein the first build support is configured to step downward in conjunction with the build platform as the object(s) are being built layer-by-layer; and a powder coater for distributing a thin layer of powder over the build insert to define a powder bed in the first build area; characterized in that the respective build substrates are configured to be individually lowered into the respective build zones thereby creating individual powder beds for each object to be built. a build chamber having a powder reservoir , a lower build plate , and a build insert that restricts the effective size of a powder bed to one or more smaller build zones above the build plate , the build insert having at least a first opening with one or more walls defining a first build area within the build insert , the first build area being smaller than the area of the build chamber, wherein the build insert is laterally offset from the powder reservoir ; a first build support adapted to support powder within the first build area, the first build support configured to step downward within the first build area as the at least one object is being built layer-by-layer; a connecting rod extending between the build platform and the first build support , wherein the first build support is configured to step downward in conjunction with the build platform as the object(s) are being built layer-by-layer; and a powder coater for distributing a thin layer of powder over the build insert to define a powder bed in the first build area; characterized in that the respective build substrates are configured to be individually lowered into the respective build zones thereby creating individual powder beds for each object to be built.
Medium voltage gas insulated switchgear with an inner compartment reinforced against pressure containing one, two or three phase switches , wherein the inner compartment is constructed gas and pressure tight versus the remaining other housing of the switchgear; wherein, walls (111-116) of the inner compartment are formed from meta sheets with integral corrugations and edges, characterised in that the edges have large radii between 1 cm and 30 cm, and in that the inner compartment is further reinforced with an internal support element that is oriented perpendicularly to the integral corrugations, mechanically connecting one wall with another wall , wherein the support element is a gearbox or another part of a frame for the one, two or three phase switches, directly fixed with the two walls and of the inner compartment. wherein the inner compartment is constructed gas and pressure tight versus the remaining other housing of the switchgear; wherein, walls (111-116) of the inner compartment are formed from meta sheets with integral corrugations and edges, characterised in that the edges have large radii between 1 cm and 30 cm, and in that the inner compartment is further reinforced with an internal support element that is oriented perpendicularly to the integral corrugations, mechanically connecting one wall with another wall , wherein the support element is a gearbox or another part of a frame for the one, two or three phase switches, directly fixed with the two walls and of the inner compartment.
Injection element for a gas injection system inside a regenerator of a fluid catalytic cracking unit, said injection system comprising a support defining at least one orifice , this support comprising a wall defining at least one portion of a cavity and having a first face intended to be in contact with the gas contained in this cavity, and the support comprising a second face , opposite the first face, intended to be in contact with a fluidized catalyst bed , in which said injection element defines a flow passage and is arranged so as to be able to be firmly attached to the support, at the orifice, so that gas from the cavity can circulate via the flow passage to the fluidized catalyst bed, characterized in that said injection element is made of a ceramic material comprising a ceramic matrix and carbon and/or ceramic fibres incorporated into this ceramic matrix, and in that the ceramic material is obtained by sintering a relatively fine sintering powder having a mean grain diameter of less than or equal to 500 nm.
A heating element for a vaporizer device comprising a reservoir containing vaporizable material and a wicking element in fluid communication with the reservoir, the heating element comprising: a heating portion comprising at least two tines spaced apart from one another, the at least two tines comprising a first side tine portion , a second side tine portion opposing the first side tine portion, and a platform tine portion connecting the first side tine portion with the second side tine portion, the heating portion being preformed to define an interior volume configured to receive the wicking element such that the heating portion secures at least a portion of the wicking element to the heating element, the interior volume being defined by the first side tine portion, the second side tine portion, and the platform tine portion, the heating portion being configured to contact at least two separate surfaces of the wicking element; and at least two legs coupled to the at least two tines and spaced apart from the heating portion , the at least two legs configured to electrically communicate with a power source , wherein power is configured to be supplied to the heating portion from the power source to generate heat, thereby vaporizing the vaporizable material stored within the wicking element. a heating portion comprising at least two tines spaced apart from one another, the at least two tines comprising a first side tine portion , a second side tine portion opposing the first side tine portion, and a platform tine portion connecting the first side tine portion with the second side tine portion, the heating portion being preformed to define an interior volume configured to receive the wicking element such that the heating portion secures at least a portion of the wicking element to the heating element, the interior volume being defined by the first side tine portion, the second side tine portion, and the platform tine portion, the heating portion being configured to contact at least two separate surfaces of the wicking element; and at least two legs coupled to the at least two tines and spaced apart from the heating portion , the at least two legs configured to electrically communicate with a power source , wherein power is configured to be supplied to the heating portion from the power source to generate heat, thereby vaporizing the vaporizable material stored within the wicking element.
An apparatus , comprising: a processor component ; a wireless transceiver to receive a wireless signal from a computing device; and wireless docking logic to be executed on the processor component configured to: receive signal strength indicator, RSSI, information from the wireless signal, determine if the RSSI information exceeds a first threshold, establish a speculative connection with the computing device and receive wireless data packets and an ultrasound signal from the computing device if the RSSI information exceeds the first threshold, determine a proximity to the computing device based on the wireless data packets and ultrasound signal, and establish a non-speculative connection with the computing device if the RSSI information exceeds a second threshold and the proximity does not exceed a proximity threshold, wherein the speculative connection comprises a non-permanent connection. a processor component ; a wireless transceiver to receive a wireless signal from a computing device; and wireless docking logic to be executed on the processor component configured to: receive signal strength indicator, RSSI, information from the wireless signal, determine if the RSSI information exceeds a first threshold, establish a speculative connection with the computing device and receive wireless data packets and an ultrasound signal from the computing device if the RSSI information exceeds the first threshold, determine a proximity to the computing device based on the wireless data packets and ultrasound signal, and establish a non-speculative connection with the computing device if the RSSI information exceeds a second threshold and the proximity does not exceed a proximity threshold, wherein the speculative connection comprises a non-permanent connection.
A positive electrode active material for a lithium ion battery, comprising a lithium transition metal-based oxide powder, the powder comprising single crystal monolithic particles comprising Ni and Co and having a general formula Li 1+a ((Ni z (Ni 1⁄2 Mn 1⁄2 ) y Co x ) 1-k A k ) 1-a O 2 , wherein A is a dopant, -0.02<a≤0.06, 0.10≤x≤0.35, 0≤z≤0.90, x+y+z=1 and k≤0.01, the particles having a cobalt concentration gradient wherein the particle surface has a higher Co content than the particle center and wherein either - when Mn is present, the ratio between the Co/Mn molar ratio at the particle surface and the Co/Mn molar ratio at a distance d from the surface is between 1.1 and 1.3, whereby d = 1⁄4 of the distance from the particle surface to the particle center, or - when Mn is absent, the ratio between C /C is between 1.1 and 1.3, wherein C is the ratio between the molar concentration of Co at the particle surface and the molar concentration of Co at the particle center, and wherein C is the ratio between a) the Co molar concentration at 3⁄4 distance from the particle surface to the particle center and b) the molar concentration of Co at the particle center. - when Mn is present, the ratio between the Co/Mn molar ratio at the particle surface and the Co/Mn molar ratio at a distance d from the surface is between 1.1 and 1.3, whereby d = 1⁄4 of the distance from the particle surface to the particle center, or - when Mn is absent, the ratio between C /C is between 1.1 and 1.3, wherein C is the ratio between the molar concentration of Co at the particle surface and the molar concentration of Co at the particle center, and wherein C is the ratio between a) the Co molar concentration at 3⁄4 distance from the particle surface to the particle center and b) the molar concentration of Co at the particle center.
An antibody or an antigen-binding portion thereof binding proliferating cell nuclear antigen ( PCNA) the antibody comprising three heavy chain CDRs and three light chain CDRs, wherein: CDR-H1 comprises the amino acid sequence selected from SEQ ID NO: 1 and SEQ ID NO: 21, CDR-H2 comprises the amino acid sequence as set forth in SEQ ID NO: 2, CDR-H3 comprises the amino acid sequence as set forth in SEQ ID NO: 3, CDR-L1 comprises the amino acid sequence as set forth in SEQ ID NO: 4, CDR-L2 comprises the amino acid sequence as set forth in SEQ ID NO: 5, and CDR-L3 comprises the amino acid sequence as set forth in SEQ ID NO: 6. CDR-H1 comprises the amino acid sequence selected from SEQ ID NO: 1 and SEQ ID NO: 21, CDR-H2 comprises the amino acid sequence as set forth in SEQ ID NO: 2, CDR-H3 comprises the amino acid sequence as set forth in SEQ ID NO: 3, CDR-L1 comprises the amino acid sequence as set forth in SEQ ID NO: 4, CDR-L2 comprises the amino acid sequence as set forth in SEQ ID NO: 5, and CDR-L3 comprises the amino acid sequence as set forth in SEQ ID NO: 6.
A modular apparatus for water production from atmospheric air which comprises: a first parallelepiped module provided with an inlet opening for moist air, an outlet opening of the dehumidified air, a ventilator , configured such as to force an air flow to cross an internal volume of the first module from the inlet opening to the outlet opening , a condensation unit , located internally of the first module so as to intercept the air flow, and a collecting tub located inferiorly of the condensation unit for collecting the condensation water that is separating from the air flow; and a second parallelepiped module in which a refrigerating unit is contained, provided with at least a portion of a refrigerating circuit in which a cooling fluid circulates, and an evaporator, which is contained in the first parallelepiped module , in which the cooling fluid evaporates so as to cool the air flow internally of the condensation unit ; wherein the first module and the second module are fixed to one another at a respective interconnecting face, characterized in that the second module exhibits a side of the interconnecting face having a width (W) that is twice a width (W/2) of a side of the interconnecting face of the first module . a first parallelepiped module provided with an inlet opening for moist air, an outlet opening of the dehumidified air, a ventilator , configured such as to force an air flow to cross an internal volume of the first module from the inlet opening to the outlet opening , a condensation unit , located internally of the first module so as to intercept the air flow, and a collecting tub located inferiorly of the condensation unit for collecting the condensation water that is separating from the air flow; and a second parallelepiped module in which a refrigerating unit is contained, provided with at least a portion of a refrigerating circuit in which a cooling fluid circulates, and an evaporator, which is contained in the first parallelepiped module , in which the cooling fluid evaporates so as to cool the air flow internally of the condensation unit ;
A method for identifying a User Equipment, LTE, performed by a base station for a high-speed-railway dedicated network, the base station comprising a plurality of remote radio units, RRUs, the method comprising: receiving, by RRUs of the plurality of RRUs which cover a same UE, uplink messages transmitted at two or more different times by the same UE ; determining, according to the uplink messages transmitted at two or more different times, RRU positional information of each RRU of the plurality of RRUs that receives an uplink message of the uplink messages ; judging whether a proportion of a number of different pieces of the RRU positional information among at least two pieces of the RRU positional information to a total number of the at least two pieces of the RRU positional information reaches a preset proportion threshold ; determining the LTE as a common LTE in response to the proportion not reaching the preset proportion threshold ; and determining the LTE as a fast-moving LTE in response to the proportion reaching the preset proportion threshold ; characterized in that when the UE is in an idle state, receiving the uplink messages transmitted at two or more different times by the same UE comprises: receiving uplink wake-up signals transmitted at two or more different times by the same UE; and the method further comprises: transmitting a broadcast message to the LTE for instructing the UE to stop transmitting the uplink wake-up signals. receiving, by RRUs of the plurality of RRUs which cover a same UE, uplink messages transmitted at two or more different times by the same UE ; determining, according to the uplink messages transmitted at two or more different times, RRU positional information of each RRU of the plurality of RRUs that receives an uplink message of the uplink messages ; judging whether a proportion of a number of different pieces of the RRU positional information among at least two pieces of the RRU positional information to a total number of the at least two pieces of the RRU positional information reaches a preset proportion threshold ; determining the LTE as a common LTE in response to the proportion not reaching the preset proportion threshold ; and determining the LTE as a fast-moving LTE in response to the proportion reaching the preset proportion threshold ; characterized in that when the UE is in an idle state, receiving the uplink messages transmitted at two or more different times by the same UE comprises: receiving uplink wake-up signals transmitted at two or more different times by the same UE; and the method further comprises: transmitting a broadcast message to the LTE for instructing the UE to stop transmitting the uplink wake-up signals.