mhurhangee/patent-ind-claim-en huggingface dataset:
A hot runner of an injection molding machine for passing melt into a mold cavity, the hot runner comprising: a first valve gated nozzle having a first valve stem ; a first piston coupled to the first valve stem; a second valve gated nozzle having a second valve stem and a second piston coupled to the second valve stem; and an actuation plate acting on the first piston and the second piston, the actuation plate configured to move the first valve stem and the second valve stem between an open position and a closed position; characterised in that the first piston and the second piston are biased within the actuation plate, via pressurized air (A), to move with movement of the actuation plate during normal operation. a first valve gated nozzle having a first valve stem ; a first piston coupled to the first valve stem; a second valve gated nozzle having a second valve stem and a second piston coupled to the second valve stem; and an actuation plate acting on the first piston and the second piston, the actuation plate configured to move the first valve stem and the second valve stem between an open position and a closed position; characterised in that the first piston and the second piston are biased within the actuation plate, via pressurized air (A), to move with movement of the actuation plate during normal operation.
A method for wireless communication at a user equipment, UE (115; 505;; 805; 2005), comprising: receiving (405; 1505), from a serving base station , indicators of a configuration for measurement reporting; performing (410; 1510) cell measurements for a set of neighboring cells based at least in part on the configuration; reporting (420; 1515) the cell measurements for the set of neighboring cells to the serving base station; receiving , from the serving base station, an indicator that identifies a subset of the neighboring cells based at least in part on the cell measurements; identifying (425; 1525) the subset of the neighboring cells based at least in part on the indicator; performing (430; 1530) beam measurements for the subset of the neighboring cells based at least in part on the configuration; and reporting (435; 1535) the beam measurements for the subset of the neighboring cells to the serving base station. receiving (405; 1505), from a serving base station , indicators of a configuration for measurement reporting; performing (410; 1510) cell measurements for a set of neighboring cells based at least in part on the configuration; reporting (420; 1515) the cell measurements for the set of neighboring cells to the serving base station; receiving , from the serving base station, an indicator that identifies a subset of the neighboring cells based at least in part on the cell measurements; identifying (425; 1525) the subset of the neighboring cells based at least in part on the indicator; performing (430; 1530) beam measurements for the subset of the neighboring cells based at least in part on the configuration; and reporting (435; 1535) the beam measurements for the subset of the neighboring cells to the serving base station.
An alloy comprising, by weight: 6.75% to 7.25% chromium; up to 0.5% cobalt; 5.9% to 6.4% aluminum; 2.6% to 3.2% rhenium; 3.8% to 6.2% tungsten; 3.8% to 6.2% tantalum; up to 0.30% silicon; 0 to 0.50% molybdenum; 0 to 5ppm sulfur; 0 to 0.50% hafnium; 0 to 0.10% carbon; and 0 to 0.15% combined of yttrium, lanthanum, and/or cerium; with the balance being nickel and inevitable impurities. 6.75% to 7.25% chromium; up to 0.5% cobalt; 5.9% to 6.4% aluminum; 2.6% to 3.2% rhenium; 3.8% to 6.2% tungsten; 3.8% to 6.2% tantalum; up to 0.30% silicon; 0 to 0.50% molybdenum; 0 to 5ppm sulfur; 0 to 0.50% hafnium; 0 to 0.10% carbon; and 0 to 0.15% combined of yttrium, lanthanum, and/or cerium; with the balance being nickel and inevitable impurities.
A transmitter chip comprising: a first transmitter circuit configured to transmit a first differential signal on a first pair of conductors to a receiver chip comprising a first receiver circuit configured to receive the first differential signal from the first pair of conductors ; and a common mode detection circuitry configured to detect changes in a first common mode voltage of the first pair of conductors to obtain a first common mode data signal, wherein the receiver chip includes a current mode circuitry configured to modulate the first common mode voltage of the first pair of conductors to communicate the first common mode data signal to the transmitter chip. a first transmitter circuit configured to transmit a first differential signal on a first pair of conductors to a receiver chip comprising a first receiver circuit configured to receive the first differential signal from the first pair of conductors ; and a common mode detection circuitry configured to detect changes in a first common mode voltage of the first pair of conductors to obtain a first common mode data signal, wherein the receiver chip includes a current mode circuitry configured to modulate the first common mode voltage of the first pair of conductors to communicate the first common mode data signal to the transmitter chip.
A beverage container , comprising: a base ; a cylindrical sidewall extending from and integrally formed with the base ; an upper region extending from the sidewall and defining an upper opening, wherein the beverage container comprises a longitudinal axis extending in a direction from the base to the upper opening; a continuous channel formed in and extending around a circumference of the sidewall , wherein the continuous channel is sinusoidal such that the continuous channel forms peaks and troughs, wherein a height of the continuous channel as measured in a direction of the longitudinal axis from a peak to a trough is about 30% to 80% of a height of the sidewall so as to resist elongation of the beverage container in a direction of the longitudinal axis; and linear channel segments formed in the cylindrical sidewall and extending around a prtion of the circumference of the cylindrical sidewall in a first plane (X1) transverse to the longitudinal axis of the beverage container , characterized in that the beverage container further comprises linear channel segments formed in the cylindrical sidewall and extending around a portion of the circumference of the cylindrical sidewall in a second plane (X2) transverse to the longitudinal axis of the beverage container such that the linear channel segments in the first plane (X1) and the second plane (X2) are aligned on the sidewall along the longitudinal axis, or in that each of the linear channel segments has a depth that is deeper than a depth of the continuous channel . a base ; a cylindrical sidewall extending from and integrally formed with the base ; an upper region extending from the sidewall and defining an upper opening, wherein the beverage container comprises a longitudinal axis extending in a direction from the base to the upper opening; a continuous channel formed in and extending around a circumference of the sidewall , wherein the continuous channel is sinusoidal such that the continuous channel forms peaks and troughs, wherein a height of the continuous channel as measured in a direction of the longitudinal axis from a peak to a trough is about 30% to 80% of a height of the sidewall so as to resist elongation of the beverage container in a direction of the longitudinal axis; and linear channel segments formed in the cylindrical sidewall and extending around a prtion of the circumference of the cylindrical sidewall in a first plane (X1) transverse to the longitudinal axis of the beverage container , characterized in that the beverage container further comprises linear channel segments formed in the cylindrical sidewall and extending around a portion of the circumference of the cylindrical sidewall in a second plane (X2) transverse to the longitudinal axis of the beverage container such that the linear channel segments in the first plane (X1) and the second plane (X2) are aligned on the sidewall along the longitudinal axis, or in that each of the linear channel segments has a depth that is deeper than a depth of the continuous channel .
A method of sequencing a template that comprises a first repeat sequence and a second repeat sequence, wherein the first and second repeat sequences are in a direct repeat and either identical or nearly identical, comprising: (a) in the same reaction, hybridizing a primer to a first site that is upstream of the first repeat sequence and hybridizing a primer to a second site that is upstream of the second repeat sequence, wherein the first and second sites are: (i) upstream of the first and second repeat sequences, respectively, and (ii) equidistant from the first and second repeat sequences; and (b) subjecting the hybridization product of (a) to a sequencing-by-synthesis sequencing reaction to produce a sequence read that comprises a combination of the first and second repeat sequences. (a) in the same reaction, hybridizing a primer to a first site that is upstream of the first repeat sequence and hybridizing a primer to a second site that is upstream of the second repeat sequence, wherein the first and second sites are: (i) upstream of the first and second repeat sequences, respectively, and (ii) equidistant from the first and second repeat sequences; and (i) upstream of the first and second repeat sequences, respectively, and (ii) equidistant from the first and second repeat sequences; and (b) subjecting the hybridization product of (a) to a sequencing-by-synthesis sequencing reaction to produce a sequence read that comprises a combination of the first and second repeat sequences.
A method for wireless communication by a User Equipment, UE, comprising: receiving at least one transmission in a first Transmission Time Interval, TTI, of a first duration configured for the UE, the first TTI assigned within a second TTI of a second duration, wherein the first TTI is configured for Ultra-Reliable and Low-Latency Communications, URLLC, and uses, at least in part, a configuration for communicating using the second TTI; and processing the received at least one transmission, characterised in that receiving the at least one transmission comprises: receiving, in a portion of a control region of the first TTI configured for uplink grant messages using the second TTI, a downlink grant message for the UE, the downlink grant message identifying resources within the control region of the first TTI for receiving downlink data by the UE. receiving at least one transmission in a first Transmission Time Interval, TTI, of a first duration configured for the UE, the first TTI assigned within a second TTI of a second duration, wherein the first TTI is configured for Ultra-Reliable and Low-Latency Communications, URLLC, and uses, at least in part, a configuration for communicating using the second TTI; and processing the received at least one transmission, characterised in that receiving the at least one transmission comprises: receiving, in a portion of a control region of the first TTI configured for uplink grant messages using the second TTI, a downlink grant message for the UE, the downlink grant message identifying resources within the control region of the first TTI for receiving downlink data by the UE.
A graphite membrane having in an independent graphite membrane a thickness of 10 nm to 12 μm, an area of 5 × 5 mm 2 or more, an electrical conductivity of 8000 S/cm or more, and an arithmetic average roughness Ra of 200 nm or less on the surface of the graphite membrane.
A level measuring device for measuring a level of a container, comprising: a level measuring unit configured for measuring a level of a container; at least one transmitting/receiving unit configured to communicate with a data processing unit ; at least one mounting unit configured for mounting the level measuring unit to a surface of the container ; at least one monitoring means configured to monitor an attachment of the level measuring device to the container provided by the at least one attachment unit , characterized in that the monitoring means are further configured to transmit an alarm message to the data processing unit via the transceiver unit when the monitoring means detects a detachment of the attachment of the level measuring device from the container , wherein, the monitoring means comprise at least one acceleration sensor configured to detect an acceleration of the level measuring device at least in a direction parallel to the acceleration due to gravity, wherein the acceleration sensor is preferably a 3-axis acceleration sensor , wherein the monitoring means are configured to evaluate the acceleration values of the acceleration sensor to determine whether there is a loosening of the attachment of the level measuring device from the container . a level measuring unit configured for measuring a level of a container; at least one transmitting/receiving unit configured to communicate with a data processing unit ; at least one mounting unit configured for mounting the level measuring unit to a surface of the container ; at least one monitoring means configured to monitor an attachment of the level measuring device to the container provided by the at least one attachment unit , characterized in that the monitoring means are further configured to transmit an alarm message to the data processing unit via the transceiver unit when the monitoring means detects a detachment of the attachment of the level measuring device from the container , wherein, the monitoring means comprise at least one acceleration sensor configured to detect an acceleration of the level measuring device at least in a direction parallel to the acceleration due to gravity, wherein the acceleration sensor is preferably a 3-axis acceleration sensor , wherein the monitoring means are configured to evaluate the acceleration values of the acceleration sensor to determine whether there is a loosening of the attachment of the level measuring device from the container .
A method for the manufacturing of a carrying device for reception of at least one sensor , comprising the steps of: - providing a receiving body having a surface to be coated and a space which is open on the side of this surface, - providing a second body having a sealing surface and positioning the sealing surface of the second body in such a manner that the surface to be coated of the receiving body is sealed by the second body at least in the circumference of the space in the receiving body, - providing a formable or moldable filling material in the space in such a manner that the filling material forms a surface shaped complementary to the sealing surface of the second body closing the space , - solidifying at least the volume of the filling material contacting the sealing surface of the second body , - removing the sealing surface of the second body from the surface to be coated as well as from the surface provided by the filling material , - coating the surface to be coated such that a membrane is provided sealing the space . - providing a receiving body having a surface to be coated and a space which is open on the side of this surface, - providing a second body having a sealing surface and positioning the sealing surface of the second body in such a manner that the surface to be coated of the receiving body is sealed by the second body at least in the circumference of the space in the receiving body, - providing a formable or moldable filling material in the space in such a manner that the filling material forms a surface shaped complementary to the sealing surface of the second body closing the space , - solidifying at least the volume of the filling material contacting the sealing surface of the second body , - removing the sealing surface of the second body from the surface to be coated as well as from the surface provided by the filling material , - coating the surface to be coated such that a membrane is provided sealing the space .
A vibration device comprising: a light-transmitting body that is arranged on a subject side of an imaging element ; a cylindrical body that has a first end portion , a second end portion on an opposite side from the first end portion , and an outer surface and an inner surface that connect the first end portion and the second end portion to each other, the cylindrical body being connected to the light-transmitting body so as to hold the light-transmitting body on the first end portion side thereof; and a piezoelectric element ; characterized in that the piezoelectric element is arranged along a circumferential direction of the cylindrical body so as to torsionally vibrate the cylindrical body . a light-transmitting body that is arranged on a subject side of an imaging element ; a cylindrical body that has a first end portion , a second end portion on an opposite side from the first end portion , and an outer surface and an inner surface that connect the first end portion and the second end portion to each other, the cylindrical body being connected to the light-transmitting body so as to hold the light-transmitting body on the first end portion side thereof; and a piezoelectric element ; characterized in that the piezoelectric element is arranged along a circumferential direction of the cylindrical body so as to torsionally vibrate the cylindrical body .
Method for producing a rotor for a synchronous reluctance machine, with the method steps of: a. stacking a rotor core as a laminated core made up of multiple laminations , which comprise flux-directing portions referred to as the d axis and flux-directing portions referred to as the q axis, the laminations each being formed with cutouts in the direction of the q axis to form flux barriers of the laminated core , b. filling the individual flux barriers of the laminated core with a plastics material containing permanently magnetic particles, by injection moulding, c. aligning the contained permanently magnetic particles by applying an external magnetic field such that the magnetic permeability in the q direction of the rotor is reduced as compared with non-filled flux barriers of the laminated core . a. stacking a rotor core as a laminated core made up of multiple laminations , which comprise flux-directing portions referred to as the d axis and flux-directing portions referred to as the q axis, the laminations each being formed with cutouts in the direction of the q axis to form flux barriers of the laminated core , b. filling the individual flux barriers of the laminated core with a plastics material containing permanently magnetic particles, by injection moulding, c. aligning the contained permanently magnetic particles by applying an external magnetic field such that the magnetic permeability in the q direction of the rotor is reduced as compared with non-filled flux barriers of the laminated core .
A dispenser beacon module that provides for wireless communication of dispenser data from a manually actuated hand hygiene product dispenser, comprising: a housing having a module base and a module cover ; a bottle presence trigger on an outer surface of the housing that when closed provides a bottle presence signal indicative of presence of a hand hygiene container in the hand hygiene product dispenser; a dispenser actuation switch that when closed provides a dispenser actuation signal; the module base including a slot configured to slidably receive a portion of an actuator of the manually actuated hand hygiene product dispenser; an actuation slider configured to slidably engage the portion of the actuator and close the dispenser actuation switch when the actuator is manually actuated by a user; a controller that receives the dispenser actuation signal, detects a corresponding dispense event, and stores corresponding dispense event data, wherein the controller further determines status information corresponding to the dispense event, including a battery level associated with the dispenser beacon module, a bottle presence indicator , a dispense event count, and a number of dispenses remaining, and wherein the controller wirelessly transmits the dispense event data to a remote computing device , the dispense event data including the time and date of the detected dispense event, the battery level, the bottle presence indicator , the dispense event count, and the number of dispenses remaining. a housing having a module base and a module cover ; a bottle presence trigger on an outer surface of the housing that when closed provides a bottle presence signal indicative of presence of a hand hygiene container in the hand hygiene product dispenser; a dispenser actuation switch that when closed provides a dispenser actuation signal; the module base including a slot configured to slidably receive a portion of an actuator of the manually actuated hand hygiene product dispenser; an actuation slider configured to slidably engage the portion of the actuator and close the dispenser actuation switch when the actuator is manually actuated by a user; a controller that receives the dispenser actuation signal, detects a corresponding dispense event, and stores corresponding dispense event data, wherein the controller further determines status information corresponding to the dispense event, including a battery level associated with the dispenser beacon module, a bottle presence indicator , a dispense event count, and a number of dispenses remaining, and wherein the controller wirelessly transmits the dispense event data to a remote computing device , the dispense event data including the time and date of the detected dispense event, the battery level, the bottle presence indicator , the dispense event count, and the number of dispenses remaining.
A non-transitory computer-readable storage medium comprising computer-executable instructions, which, when executed by a processor associated with an additive manufacturing machine , cause the processor to perform a method characterized by : computing, for respective ones of a plurality of models, a probability density function defining a probability that a sensor data set matches an output of a corresponding one of the plurality of models, wherein the sensor data comprises one or more sensor values from one or more sensors used to monitor an additive manufacturing process; wherein the probability density function is determined based at least in part on a difference between the sensor data set and the output of the corresponding one of the plurality of models; and outputting an indication of a defined condition being present during the additive manufacturing process, the defined condition corresponding to a selected one of the plurality of models, wherein the selected one of the plurality of models has an associated specified probability that the sensor data set matches the output of the selected one of the plurality of models; wherein the selected one of the plurality of models has the highest associated probability from among the plurality of models that the sensor data set matches the output. computing, for respective ones of a plurality of models, a probability density function defining a probability that a sensor data set matches an output of a corresponding one of the plurality of models, wherein the sensor data comprises one or more sensor values from one or more sensors used to monitor an additive manufacturing process; wherein the probability density function is determined based at least in part on a difference between the sensor data set and the output of the corresponding one of the plurality of models; and outputting an indication of a defined condition being present during the additive manufacturing process, the defined condition corresponding to a selected one of the plurality of models, wherein the selected one of the plurality of models has an associated specified probability that the sensor data set matches the output of the selected one of the plurality of models; wherein the selected one of the plurality of models has the highest associated probability from among the plurality of models that the sensor data set matches the output.