mhurhangee/patent-ind-claim-en huggingface dataset:
A method of reducing distortion in an additively manufactured part, the method comprising: depositing a composite including a metal particulate filler and a debindable matrix in successive layers to form a densification linking platform (RA1), densification linking supports, and a desired part, at least a portion of the successive layers deposited form at least one wall substantially enclosing an interior volume of the densification linking platform, the densification linking supports, or the desired part ; forming a debinding acceleration structure having interconnected chambers and a plurality of access channels (CH2) that penetrate one or more of the at least one walls exposing the composite such that, when exposed to a fluid debinder during a debinding process, the exposed composite forms a brown part assembly including the debound densification linking platform (RA1), the debound densification linking supports, and the debound part; debinding the composite by penetrating the fluid debinder into the debinding acceleration structure through the plurality of access channels (CH2) to debind the matrix from within the interior volume of the densification linking platform (RA1), the densification linking supports, or the desired part; and sintering the brown part assembly to densify at a rate substantially common throughout the brown part assembly to form the part. depositing a composite including a metal particulate filler and a debindable matrix in successive layers to form a densification linking platform (RA1), densification linking supports, and a desired part, at least a portion of the successive layers deposited form at least one wall substantially enclosing an interior volume of the densification linking platform, the densification linking supports, or the desired part ; forming a debinding acceleration structure having interconnected chambers and a plurality of access channels (CH2) that penetrate one or more of the at least one walls exposing the composite such that, when exposed to a fluid debinder during a debinding process, the exposed composite forms a brown part assembly including the debound densification linking platform (RA1), the debound densification linking supports, and the debound part; debinding the composite by penetrating the fluid debinder into the debinding acceleration structure through the plurality of access channels (CH2) to debind the matrix from within the interior volume of the densification linking platform (RA1), the densification linking supports, or the desired part; and sintering the brown part assembly to densify at a rate substantially common throughout the brown part assembly to form the part.
A catheter (84; 128) comprising: an elongated catheter body having a distal portion and at least one lumen extending longitudinally therethrough; and a mapping assembly (96; 150) mounted at the distal portion of the catheter body and comprising a plurality of splines (98; 152), each of the splines having a proximal end disposed at the distal portion of the catheter body and a distal end and configured as a Fibonacci spiral arm (40; 72, 74; 130) that diverges outwardly from the proximal end, wherein each of the splines comprises: a support arm having shape memory; a non-conductive covering in surrounding relation to the support arm; at least one location sensor mounted at or near the distal end; a plurality of electrodes mounted in surrounding relation to the non-conductive covering; and a plurality of electrode lead wires extending within the non-conductive covering, each electrode lead wire being attached to a corresponding one of the electrodes, wherein a Fibonacci spiral arm is a spiral arm formed of successive quarter-circular arcs, in which the nth quarter-circular arc has a radius R n given by: R 1 = R 2 = 1, for n = 1 or n = 2, and R n = R n-1 + R n-2 , for n > 2; and wherein R 1 is the radial distance from an origin at the proximal end. an elongated catheter body having a distal portion and at least one lumen extending longitudinally therethrough; and a mapping assembly (96; 150) mounted at the distal portion of the catheter body and comprising a plurality of splines (98; 152), each of the splines having a proximal end disposed at the distal portion of the catheter body and a distal end and configured as a Fibonacci spiral arm (40; 72, 74; 130) that diverges outwardly from the proximal end, wherein each of the splines comprises: a support arm having shape memory; a non-conductive covering in surrounding relation to the support arm; at least one location sensor mounted at or near the distal end; a plurality of electrodes mounted in surrounding relation to the non-conductive covering; and a plurality of electrode lead wires extending within the non-conductive covering, each electrode lead wire being attached to a corresponding one of the electrodes, wherein a Fibonacci spiral arm is a spiral arm formed of successive quarter-circular arcs, in which the nth quarter-circular arc has a radius R n given by: a support arm having shape memory; a non-conductive covering in surrounding relation to the support arm; at least one location sensor mounted at or near the distal end; a plurality of electrodes mounted in surrounding relation to the non-conductive covering; and a plurality of electrode lead wires extending within the non-conductive covering, each electrode lead wire being attached to a corresponding one of the electrodes, wherein a Fibonacci spiral arm is a spiral arm formed of successive quarter-circular arcs, in which the nth quarter-circular arc has a radius R n given by: R 1 = R 2 = 1, for n = 1 or n = 2, and R n = R n-1 + R n-2 , for n > 2; and wherein R 1 is the radial distance from an origin at the proximal end.
An integrated circuit (IC) chip to be used for performing a financial function, characterised in that the IC chip comprises: a personal identification number (PIN) supply unit to supply a PIN to be used for authorization when performing the financial function using the IC chip; an input-output interface to transmit the PIN externally; and a blocking unit to physically block a connection between the PIN supply unit and the input-output interface when the PIN is transmitted externally through the input-output interface subsequent to the IC chip being initially accessed, thus preventing the PIN from being supplied by any external accesses subsequent to the initial access. a personal identification number (PIN) supply unit to supply a PIN to be used for authorization when performing the financial function using the IC chip; an input-output interface to transmit the PIN externally; and a blocking unit to physically block a connection between the PIN supply unit and the input-output interface when the PIN is transmitted externally through the input-output interface subsequent to the IC chip being initially accessed, thus preventing the PIN from being supplied by any external accesses subsequent to the initial access.
A gas turbine engine comprising: a compressor section ; a combustor arranged in communication with the compressor section ; and a turbine section arranged in communication with the combustor; the compressor section, the combustor and the turbine section defining a core flow path, wherein at least a portion of the core flow path is configured to be operable at a temperature of 300°C or greater, and wherein the portion of the core flow path defines a target vibrational mode to dampen; and a nanocellular foam damper including interconnected ligaments in a cellular structure, the interconnected ligaments having ligament properties defined with respect to the loss modulus and tan δ (tan delta) of the nanocellular foam damper and the target vibrational mode; wherein the average ligament size is a width dimension, and the width dimension is less than 1000 nanometers; and wherein the interconnected ligaments include at least one metal, and wherein the at least one metal is selected from the group consisting of manganese, titanium, tungsten, vanadium, niobium, hafnium, tantalum, rhenium, ruthenium, iridium, palladium, platinum, zirconium, cobalt, yttrium, copper, molybdenum, chromium, nickel, and combinations thereof. a compressor section ; a combustor arranged in communication with the compressor section ; and a turbine section arranged in communication with the combustor; the compressor section, the combustor and the turbine section defining a core flow path, wherein at least a portion of the core flow path is configured to be operable at a temperature of 300°C or greater, and wherein the portion of the core flow path defines a target vibrational mode to dampen; and a nanocellular foam damper including interconnected ligaments in a cellular structure, the interconnected ligaments having ligament properties defined with respect to the loss modulus and tan δ (tan delta) of the nanocellular foam damper and the target vibrational mode; wherein the average ligament size is a width dimension, and the width dimension is less than 1000 nanometers; and wherein the interconnected ligaments include at least one metal, and wherein the at least one metal is selected from the group consisting of manganese, titanium, tungsten, vanadium, niobium, hafnium, tantalum, rhenium, ruthenium, iridium, palladium, platinum, zirconium, cobalt, yttrium, copper, molybdenum, chromium, nickel, and combinations thereof.
A system for analyzing coffee beans, comprising: a light sensor for sensing a level of darkness of a coffee bean; a distance sensor for determining a distance (d) between the light sensor and the coffee bean; and a processor , characterized in that the processor is adapted to calibrate the sensed level of darkness using the determined distance, thereby to obtain a calibrated level of darkness. a light sensor for sensing a level of darkness of a coffee bean; a distance sensor for determining a distance (d) between the light sensor and the coffee bean; and a processor , characterized in that the processor is adapted to calibrate the sensed level of darkness using the determined distance, thereby to obtain a calibrated level of darkness.
A method for adaptive selection of a data network, wherein the method is implemented by a terminal which supports at least two Subscriber Identity Modules, SIMs, and the method comprises the following steps: in response to the terminal being powered on, by using identification information of each SIM, searching an Access Point Name, APN, list database of the terminal for at least one group of APN, wherein the identification information of each SIM corresponds to at least one group of APN; the APN list database of the terminal comprises at least one group of APN, which enables the terminal to successfully establish a data network service for each SIM, and each group of APN corresponds to network parameters of an operator; the method further comprising: initiating a data service establishment request to a network through each group of APN as parameters in a polling manner according to the at least one group of APN searched-out to search for one group of APN which enables the terminal to successfully establish a data network service for each SIM (S101); initiating a network usage request to a network server by using the one group of APN searched-out for each SIM as parameters respectively (S102); and when the terminal finds that at least two groups of APNs searched-out can enable the terminal to successfully establish data network services, selecting a data network with the highest network transmission rate from all data networks to use a data service (S103). initiating a data service establishment request to a network through each group of APN as parameters in a polling manner according to the at least one group of APN searched-out to search for one group of APN which enables the terminal to successfully establish a data network service for each SIM (S101); initiating a network usage request to a network server by using the one group of APN searched-out for each SIM as parameters respectively (S102); and when the terminal finds that at least two groups of APNs searched-out can enable the terminal to successfully establish data network services, selecting a data network with the highest network transmission rate from all data networks to use a data service (S103).
High manganese hot-rolled steel sheet having superior low temperature toughness and yield strength, comprising: by wt%, 0.3 to 0.6% of C, 20 to 25% of Mn, 0.01 to 0.3% of Mo, 3% or less of Al, including 0%, 0.1 to 3% of Cu, 0.06% or less of P, and 0.005% or less of S, one or more selected from between 8% or less of Cr, including 0%, and 0.1 to 3% of Ni, and the remainder being Fe and inevitable impurities, wherein Mo and P satisfy the following Relational Expression , 1.5 ≤ 2 * Mo / 93 / P / 31 ≤ 9 where a microstructure is formed of austenite having a grain size of 50 μm or less, wherein the high manganese hot-rolled steel sheet has an impact toughness value of 100J or higher, measured by a charpy impact test at -196°C, and wherein the high manganese hot-rolled steel sheet has room temperature yield strength of 380MPa or higher. by wt%, 0.3 to 0.6% of C, 20 to 25% of Mn, 0.01 to 0.3% of Mo, 3% or less of Al, including 0%, 0.1 to 3% of Cu, 0.06% or less of P, and 0.005% or less of S, one or more selected from between 8% or less of Cr, including 0%, and 0.1 to 3% of Ni, and the remainder being Fe and inevitable impurities, wherein Mo and P satisfy the following Relational Expression , 1.5 ≤ 2 * Mo / 93 / P / 31 ≤ 9 where a microstructure is formed of austenite having a grain size of 50 μm or less, wherein the high manganese hot-rolled steel sheet has an impact toughness value of 100J or higher, measured by a charpy impact test at -196°C, and wherein the high manganese hot-rolled steel sheet has room temperature yield strength of 380MPa or higher.
A thin film sensor for emitting light when excited by an electron beam, comprising: a cerium-doped or praseodymium-doped, non-transparent, garnet crystalline energy conversion phosphor powder, comprised of particles having an average grain size between 1 and 5 microns.
Method for controlling the temperature of a vacuum pump of the dry vacuum pump type subjected to variable pumping loads, the vacuum pump comprising: o a stator , o at least one pumping stage (T1-T5), o two shafts extending into the at least one pumping stage (T1-T5) and respectively bearing at least one rotor , the rotors being configured to rotate synchronously in opposite directions in the stator in order to drive a gas (G) that is to be pumped from a suction inlet of the vacuum pump to a delivery outlet , o at least one cooling element coupled to the stator , o at least one temperature sensor configured to take a measurement of the temperature of the stator , and o a control unit configured to control the temperature of the stator by means of the at least one cooling element and of the at least one temperature sensor , in which the temperature of the vacuum pump is controlled by means of the at least one cooling element coupled to the stator on the basis of a temperature setpoint and of a measurement of the temperature of the stator , characterized in that monitoring monitors whether the value of a parameter indicative of the pumping load, chosen from either a current drawn or a power consumed by the vacuum pump , is below a load threshold and, if the value of the parameter indicative of the pumping load is below the load threshold (S), then the temperature setpoint is increased . o a stator , o at least one pumping stage (T1-T5), o two shafts extending into the at least one pumping stage (T1-T5) and respectively bearing at least one rotor , the rotors being configured to rotate synchronously in opposite directions in the stator in order to drive a gas (G) that is to be pumped from a suction inlet of the vacuum pump to a delivery outlet , o at least one cooling element coupled to the stator , o at least one temperature sensor configured to take a measurement of the temperature of the stator , and o a control unit configured to control the temperature of the stator by means of the at least one cooling element and of the at least one temperature sensor ,
Gear coupling for connecting a drive shaft and an output shaft, comprising - a first coupling portion to be connected to the drive shaft and a second coupling portion to be connected to the output shaft, wherein the two coupling portions each have a driver toothing with an internal toothing and an external toothing which engages therein, and characterised in that - an intermediate tube connecting the two coupling portions with one another and electrically insulating the same from one another is made of an electrically insulating material, wherein one of the coupling portions surrounds the inner periphery of the intermediate tube and the other coupling portion surrounds the outer periphery of the intermediate tube . - a first coupling portion to be connected to the drive shaft and a second coupling portion to be connected to the output shaft, wherein the two coupling portions each have a driver toothing with an internal toothing and an external toothing which engages therein, and characterised in that - an intermediate tube connecting the two coupling portions with one another and electrically insulating the same from one another is made of an electrically insulating material, wherein one of the coupling portions surrounds the inner periphery of the intermediate tube and the other coupling portion surrounds the outer periphery of the intermediate tube .
An information processing apparatus comprising: a walking section specification unit configured to specify (S702) a walking section in which a subject walks from sensor information indicating a motion of the subject; a load section extraction unit configured to: calculate (S705), from the sensor information , an elapsed time from the start of the walking of the subject, an increase in the pulse rate of the subject, an accumulation of a number of times of wobble of the subject, and a walking distance of the subject as values of items; compare (S706) each of the values of items with respective thresholds; and extract (S707) a time point when at least one of the values of items is equal to or greater than the respective threshold as a start time of a load section in which a physical load is applied to the subject; a feature amount calculation unit configured to calculate (S708, S709) a feature amount indicating the motion of the subject in the load section; and an estimation unit configured to estimate (S713) a physical state of the subject based on the feature amount. a walking section specification unit configured to specify (S702) a walking section in which a subject walks from sensor information indicating a motion of the subject; a load section extraction unit configured to: calculate (S705), from the sensor information , an elapsed time from the start of the walking of the subject, an increase in the pulse rate of the subject, an accumulation of a number of times of wobble of the subject, and a walking distance of the subject as values of items; compare (S706) each of the values of items with respective thresholds; and extract (S707) a time point when at least one of the values of items is equal to or greater than the respective threshold as a start time of a load section in which a physical load is applied to the subject; calculate (S705), from the sensor information , an elapsed time from the start of the walking of the subject, an increase in the pulse rate of the subject, an accumulation of a number of times of wobble of the subject, and a walking distance of the subject as values of items; compare (S706) each of the values of items with respective thresholds; and extract (S707) a time point when at least one of the values of items is equal to or greater than the respective threshold as a start time of a load section in which a physical load is applied to the subject; a feature amount calculation unit configured to calculate (S708, S709) a feature amount indicating the motion of the subject in the load section; and an estimation unit configured to estimate (S713) a physical state of the subject based on the feature amount.
A method , comprising: obtaining, using one or more sensors on a wearable computing device, physiological parameters of a wearer of the wearable computing device; storing data on the wearable computing device, wherein the stored data comprises the physiological parameters of the wearer of the wearable computing device; after storing the data on the wearable computing device, receiving , at the wearable computing device, a request for a portion of the previously stored data; determining a designated role associated with the request for the portion of the previously stored data; determining , using the wearable computing device, one or more rules regarding access to the portion of the previously stored data based on the designated role; and determining , using the wearable computing device, a response to the request for the portion of the previously stored data by at least: determining whether the request is validated by at least applying the one or more rules to the request, and after determining that the request is validated, providing the requested portion of the previously stored data. obtaining, using one or more sensors on a wearable computing device, physiological parameters of a wearer of the wearable computing device; storing data on the wearable computing device, wherein the stored data comprises the physiological parameters of the wearer of the wearable computing device; after storing the data on the wearable computing device, receiving , at the wearable computing device, a request for a portion of the previously stored data; determining a designated role associated with the request for the portion of the previously stored data; determining , using the wearable computing device, one or more rules regarding access to the portion of the previously stored data based on the designated role; and determining , using the wearable computing device, a response to the request for the portion of the previously stored data by at least: determining whether the request is validated by at least applying the one or more rules to the request, and after determining that the request is validated, providing the requested portion of the previously stored data. determining whether the request is validated by at least applying the one or more rules to the request, and after determining that the request is validated, providing the requested portion of the previously stored data.
A method of freeze-drying encapsulated cells, the method comprising at least two consecutive incubation steps, wherein the encapsulated cells are incubated in each incubation step in an incubation solution containing cryoprotectant over a suitable period of time, wherein the concentration of cryoprotectant in the incubation solution is increased with each subsequent incubation step, wherein the encapsulated cells are bacterial cells or yeast cells, and wherein the cryoprotectant is a mixture of skim milk, glycerol and a carbohydrate, wherein skim milk is present in a concentration of 3 % (w/v) to 8 % (w/v), glycerol is present in a concentration of 0.5 % (w/v) to 2 % (w/v) and the carbohydrate is trehalose and is present in a concentration of 5 % (w/v) to 13 % (w/v).