mhurhangee/ep-ind-claims huggingface dataset:
A metal oxide semiconductor, MOS, integrated circuit, IC, comprising: a first circuit including a first plurality of n-type MOS, nMOS, devices, a first p-type tap, p-tap, cell, and a first dummy nMOS cell, the first plurality of nMOS devices being spaced apart in a first direction, the first p-tap cell and the first dummy nMOS cell being adjacent to each other in the first direction between the first plurality of nMOS devices, the first p-tap cell being configured to be coupled to a first voltage source; and a second circuit including a first plurality of p-type MOS, pMOS, devices, a first dummy pMOS cell, and a first n-type tap, n-tap, cell, the first plurality of pMOS devices being adjacent to the first plurality of nMOS devices in a second direction orthogonal to the first direction, the first plurality of pMOS devices being spaced apart in the first direction, the first dummy pMOS cell and the first n-tap cell being adjacent to each other in the first direction between the first plurality of pMOS devices, the first n-tap cell being configured to be coupled to a second voltage source, characterised in that the first p-tap cell and the first dummy pMOS cell are +t+T adjacent to each other in the second direction, and in that the first dummy nMOS cell and the first n-tap cell are adjacent to each other in the second direction. a first circuit including a first plurality of n-type MOS, nMOS, devices, a first p-type tap, p-tap, cell, and a first dummy nMOS cell, the first plurality of nMOS devices being spaced apart in a first direction, the first p-tap cell and the first dummy nMOS cell being adjacent to each other in the first direction between the first plurality of nMOS devices, the first p-tap cell being configured to be coupled to a first voltage source; and a second circuit including a first plurality of p-type MOS, pMOS, devices, a first dummy pMOS cell, and a first n-type tap, n-tap, cell, the first plurality of pMOS devices being adjacent to the first plurality of nMOS devices in a second direction orthogonal to the first direction, the first plurality of pMOS devices being spaced apart in the first direction, the first dummy pMOS cell and the first n-tap cell being adjacent to each other in the first direction between the first plurality of pMOS devices, the first n-tap cell being configured to be coupled to a second voltage source, the first p-tap cell and the first dummy pMOS cell are +t+T adjacent to each other in the second direction, and in that the first dummy nMOS cell and the first n-tap cell are adjacent to each other in the second direction.
A microorganism of the genus Corynebacterium having increased L-lysine productivity compared to an unmodified microorganism, which is modified such that an activity of a protein involved in cell wall hydrolysis is inactivated in comparison with an endogenous activity thereof.
A cell of the genus Prototheca comprising an exogenous gene, wherein the exogenous gene is in operable linkage with a promoter, and encodes a fatty acyl-ACP thioesterase.
Method for the automated assembly of a frame consisting of corner brackets and flange profiles for an air duct element, - in which an assembly device is fitted with flange profiles and corner brackets using a handling device, - in which two opposite corner brackets aligned with a flange profile are inserted into the flange profile and an assembly group is formed, - in which two opposing assembly groups are inserted into the flange profiles with free insertion fingers of the corner brackets of the assembly group to the flange profiles arranged between them and a closed frame is formed. - in which an assembly device is fitted with flange profiles and corner brackets using a handling device, - in which two opposite corner brackets aligned with a flange profile are inserted into the flange profile and an assembly group is formed, - in which two opposing assembly groups are inserted into the flange profiles with free insertion fingers of the corner brackets of the assembly group to the flange profiles arranged between them and a closed frame is formed.
A method for maintaining and distributing presence information, the method comprising at a presence server: associating recording rules with presence information elements for a user of a communication device, wherein each presence information element has an associated recording rule; maintaining a current value and a set of previous values for presence information elements for the user based on the associated recording rules, each recording rule determining whether, when the current value is replaced with a new current value for the presence information element associated with the recording rule, the current value is added to the maintained set of previous values for that presence information element; receiving a request from a watcher for values of presence information elements for the user; and in response to the request, notifying the watcher of the current value and the set of previous values for presence information elements for the user, wherein the step of notifying the watcher of the set of previous values of presence information elements comprises a step of providing a number of previous values of presence information elements to the watcher based on a previous value selection rule provisioned in the presence server or received by the presence server from a third party other than the watcher, the previous value selection rule determining which ones of the maintained set of previous values of presence information elements are provided to the watcher. associating recording rules with presence information elements for a user of a communication device, wherein each presence information element has an associated recording rule; maintaining a current value and a set of previous values for presence information elements for the user based on the associated recording rules, each recording rule determining whether, when the current value is replaced with a new current value for the presence information element associated with the recording rule, the current value is added to the maintained set of previous values for that presence information element; receiving a request from a watcher for values of presence information elements for the user; and in response to the request, notifying the watcher of the current value and the set of previous values for presence information elements for the user, wherein the step of notifying the watcher of the set of previous values of presence information elements comprises a step of providing a number of previous values of presence information elements to the watcher based on a previous value selection rule provisioned in the presence server or received by the presence server from a third party other than the watcher, the previous value selection rule determining which ones of the maintained set of previous values of presence information elements are provided to the watcher.
A method of designing a plastic container comprising the steps of: providing a design of a container having a first sidewall profile, wherein the first sidewall profile corresponds to a first volume of liquid being contained within the container; free blow molding a first preform having known dimensions to result in a free blown container having a second sidewall profile, wherein the free blow molding is performed using liquid as the free blow medium; comparing the first sidewall profile of the design of the container to the second sidewall profile of the free blown container; and repeating the free blow molding step using a second preform with different known dimensions or under different free blow molding conditions from the first preform to minimize a difference between the first sidewall profile of the design of the container and the second sidewall profile of the free blown container, wherein repeating the free blow molding step further includes verifying that the second sidewall profile of the free blown container corresponds to the free blown container containing the first volume of liquid therein, and wherein the second preform with different known dimensions or the different free blow molding conditions are selected based on a reference guide of previously-determined information related to a resulting free blown container formed from a particular preform. providing a design of a container having a first sidewall profile, wherein the first sidewall profile corresponds to a first volume of liquid being contained within the container; free blow molding a first preform having known dimensions to result in a free blown container having a second sidewall profile, wherein the free blow molding is performed using liquid as the free blow medium; comparing the first sidewall profile of the design of the container to the second sidewall profile of the free blown container; and repeating the free blow molding step using a second preform with different known dimensions or under different free blow molding conditions from the first preform to minimize a difference between the first sidewall profile of the design of the container and the second sidewall profile of the free blown container, wherein repeating the free blow molding step further includes verifying that the second sidewall profile of the free blown container corresponds to the free blown container containing the first volume of liquid therein, and wherein the second preform with different known dimensions or the different free blow molding conditions are selected based on a reference guide of previously-determined information related to a resulting free blown container formed from a particular preform.
An earth boring bit comprising: a body; a connection selectively attachable to a drill string; a chamber in the body in selective fluid communication with an inside of the drill string; a packer that selectively expands radially outward into sealing contact with an inner surface of a wellbore; an exit nozzle having a discharge on an outer surface of the body and in selective communication with the chamber, and characterized by a fracturing port having a discharge on an outer surface of the body and in selective communication with the chamber; and a valve assembly in the chamber selectively moveable from a drilling position that blocks fluid communication between the fracturing port and chamber to a fracturing position that blocks fluid communication between the exit nozzle and chamber. a body; a connection selectively attachable to a drill string; a chamber in the body in selective fluid communication with an inside of the drill string; a packer that selectively expands radially outward into sealing contact with an inner surface of a wellbore; an exit nozzle having a discharge on an outer surface of the body and in selective communication with the chamber, and characterized by a fracturing port having a discharge on an outer surface of the body and in selective communication with the chamber; and a valve assembly in the chamber selectively moveable from a drilling position that blocks fluid communication between the fracturing port and chamber to a fracturing position that blocks fluid communication between the exit nozzle and chamber. a valve assembly in the chamber selectively moveable from a drilling position that blocks fluid communication between the fracturing port and chamber to a fracturing position that blocks fluid communication between the exit nozzle and chamber.
Method for determining the degree of contamination of a filter in a hydraulic system, comprising at least the following steps: a) ascertaining a pressure difference value which occurs across the filter; b) ascertaining boundary conditions which describe a relationship between the pressure difference value and the degree of contamination and which are present during the determined pressure difference value; c) assigning the pressure difference value and the boundary conditions to a pattern based on a pattern database stored in a memory, wherein, to build the used pattern database stored in the memory, a minimum amount of data triples, comprising - pressure difference values, - boundary condition data relating to arising boundary conditions, and - information relating to the respective degree of contamination present, are collected; d) ascertaining a degree of contamination assigned to the pattern from the pattern database stored in the memory, characterized in that the building of the pattern database stored in the memory comprises the assignment of data triples to clusters. a) ascertaining a pressure difference value which occurs across the filter; b) ascertaining boundary conditions which describe a relationship between the pressure difference value and the degree of contamination and which are present during the determined pressure difference value; c) assigning the pressure difference value and the boundary conditions to a pattern based on a pattern database stored in a memory, wherein, to build the used pattern database stored in the memory, a minimum amount of data triples, comprising - pressure difference values, - boundary condition data relating to arising boundary conditions, and - information relating to the respective degree of contamination present, are collected; - pressure difference values, - boundary condition data relating to arising boundary conditions, and - information relating to the respective degree of contamination present, are collected; d) ascertaining a degree of contamination assigned to the pattern from the pattern database stored in the memory,
Radiation detector with a substrate and a membrane suspended above the substrate by spacers, wherein the spacers electrically contact a radiation sensor formed in the membrane and thermally insulate the membrane from the substrate, wherein the spacers are configured as long and thinly coated hollow tubes, wherein the spacers are manufactured by means of atomic layer deposition ALD and a sacrificial layer method, wherein an aspect ratio of the length l to the diameter D of the spacer is greater than or equal to 1, and wherein the membrane is suspended on the spacers without ridges. wherein the spacers electrically contact a radiation sensor formed in the membrane and thermally insulate the membrane from the substrate, wherein the spacers are configured as long and thinly coated hollow tubes, wherein the spacers are manufactured by means of atomic layer deposition ALD and a sacrificial layer method, wherein an aspect ratio of the length l to the diameter D of the spacer is greater than or equal to 1, and wherein the membrane is suspended on the spacers without ridges.
A soluble ectonucleotide pyrophosphatase phosphodiesterase for use in a method for treating a subject having Pseudoxanthoma elasticum comprising administering to the subject an effective amount of soluble ectonucleotide pyrophosphatase phosphodiesterase (sNPP1), or fusion protein thereof, wherein said sNPP1 has pyrophosphatase activity, phosphodiesterase activity, or pyrophosphatase and phosphodiesterase activity.
A method for implementing session initiation protocol SIP trunk groups on a per call basis, the method comprising: (a) receiving a first SIP signaling message associated with a new call; (b) identifying, based on at least one of one or more parameters in a via header of the first SIP signaling message, a source Internet protocol IP address of the first SIP signaling message, and a proprietary extension of the first SIP signaling message, an incoming SIP trunk group for the new call, wherein the incoming SIP trunk group comprises a logical group of associated peer entities and wherein, if there is no SIP parameter identifying the incoming trunk group, the incoming SIP trunk group is identified based on the source IP address and/or a transport layer port; (c) selecting, based on the incoming SIP trunk group, a first set of per-trunk-group call processing data from a plurality of sets of different call processing data associated with different incoming SIP trunk group; and (d) processing the new call using the first set of per-trunk-group call processing data. (a) receiving a first SIP signaling message associated with a new call; (b) identifying, based on at least one of one or more parameters in a via header of the first SIP signaling message, a source Internet protocol IP address of the first SIP signaling message, and a proprietary extension of the first SIP signaling message, an incoming SIP trunk group for the new call, wherein the incoming SIP trunk group comprises a logical group of associated peer entities and wherein, if there is no SIP parameter identifying the incoming trunk group, the incoming SIP trunk group is identified based on the source IP address and/or a transport layer port; (c) selecting, based on the incoming SIP trunk group, a first set of per-trunk-group call processing data from a plurality of sets of different call processing data associated with different incoming SIP trunk group; and (d) processing the new call using the first set of per-trunk-group call processing data.
A system comprising: at least one computing device configured to monitor a dynamoelectric machine having a rotor including an exciter electrically coupled with a field winding, characterized in that the computing device is configured to perform actions including:: obtaining measured data of a resistance of the field winding at a plurality of rotor angular positions while the rotor is rotating at a speed below one-hundred revolutions per minute; comparing the measured data indicating the resistance of the field winding at the plurality of rotor angular positions with a threshold resistance range; and indicating a fault in the field winding in response to determining the measured data indicating the resistance deviates from the threshold resistance range. obtaining measured data of a resistance of the field winding at a plurality of rotor angular positions while the rotor is rotating at a speed below one-hundred revolutions per minute; comparing the measured data indicating the resistance of the field winding at the plurality of rotor angular positions with a threshold resistance range; and indicating a fault in the field winding in response to determining the measured data indicating the resistance deviates from the threshold resistance range.
A system for measuring a level of dry bulk material in a container, said system comprising: a columnar device adapted to be supported vertically within the container; and a load cell associated with said columnar device, said load cell being arranged to measure a weight of the dry bulk material within the columnar device, characterized in that said columnar device has a closed lower end and at least one opening through a sidewall thereof for allowing dry bulk material within the container to flow into and out of the columnar device. a columnar device adapted to be supported vertically within the container; and a load cell associated with said columnar device, said load cell being arranged to measure a weight of the dry bulk material within the columnar device, characterized in that said columnar device has a closed lower end and at least one opening through a sidewall thereof for allowing dry bulk material within the container to flow into and out of the columnar device.
A method for processing a substrate in a process chamber (300; 508), comprising: receiving, by a synchronization controller (322; 504), process control parameters for one or more devices (308, 356, 348, 370; 506 1-n) from a process controller (330; 502) to perform a first chamber process; determining, by the synchronization controller, a time to send each of the process control parameters to the one or more devices; for each of the one or more devices, adjusting, by the synchronization controller, the determined time to send each of the process control parameters using specific signal process delays associated with each of the one or more devices wherein the specific signal processing delays include intrinsic delays associated with each of the one or more devices; and sending, by the synchronization controller, the process control parameters to each of the one or more devices at the adjusted times to perform the first chamber process, wherein the synchronization controller includes one or more output channels (512 1-n), each channel directly coupled to one of the one or more devices. receiving, by a synchronization controller (322; 504), process control parameters for one or more devices (308, 356, 348, 370; 506 1-n) from a process controller (330; 502) to perform a first chamber process; determining, by the synchronization controller, a time to send each of the process control parameters to the one or more devices; for each of the one or more devices, adjusting, by the synchronization controller, the determined time to send each of the process control parameters using specific signal process delays associated with each of the one or more devices wherein the specific signal processing delays include intrinsic delays associated with each of the one or more devices; and sending, by the synchronization controller, the process control parameters to each of the one or more devices at the adjusted times to perform the first chamber process, wherein the synchronization controller includes one or more output channels (512 1-n), each channel directly coupled to one of the one or more devices.
Construction machinery including at least two actuators (7, 8), a main pump that generates hydraulic energy for driving the actuators (7, 8), flow control means disposed between the main pump and the actuators (7, 8), additional energy generating means that generates energy to be added to the hydraulic energy, and control means that reduces hydraulic energy generated by the main pump when the additional energy generating means generates energy, the construction machinery comprising: changeover means (12d, 12e, 12f) that selectively changes a location at which the energy from the additional energy generating means is to be added according to the actuators (7, 8), wherein the control means changes a reduction rate of the hydraulic energy generated by the main pump depending on a specific actuator (7, 8) to which the energy is to be added. changeover means (12d, 12e, 12f) that selectively changes a location at which the energy from the additional energy generating means is to be added according to the actuators (7, 8), wherein the control means changes a reduction rate of the hydraulic energy generated by the main pump depending on a specific actuator (7, 8) to which the energy is to be added.