mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing multiple review modes in a single acquisition scan, comprising: acquiring image frames for a plurality of ultrasound imaging modes including at least a fundamental mode and a harmonic mode by switching between ultrasound image acquisition modes including at least a fundamental acquisition mode and a harmonic acquisition mode in real-time during a single acquisition scan; storing the image frames in non-transitory memory for each of the ultrasound image acquisition modes for subsequent review; and during review, selectively generating a display for each of the plurality of ultrasound imaging modes from the stored image frames for an imaging mode selected by a reviewer such that each of the plurality of ultrasound imaging modes is available for review from the single acquisition scan, wherein the method further comprises enabling or disabling compounding using the stored images. acquiring image frames for a plurality of ultrasound imaging modes including at least a fundamental mode and a harmonic mode by switching between ultrasound image acquisition modes including at least a fundamental acquisition mode and a harmonic acquisition mode in real-time during a single acquisition scan; storing the image frames in non-transitory memory for each of the ultrasound image acquisition modes for subsequent review; and during review, selectively generating a display for each of the plurality of ultrasound imaging modes from the stored image frames for an imaging mode selected by a reviewer such that each of the plurality of ultrasound imaging modes is available for review from the single acquisition scan, wherein the method further comprises enabling or disabling compounding using the stored images.
A lens for distribution of light from a light emitter having an emitter axis , the lens comprising: • an inner surface defining an inner cavity about the emitter axis , the inner surface comprising at least two distinct sets of inner-surface stepwise discontinuities , one set formed by a plurality of transverse inner regions having curved facets on planes normal to the emitter axis , and the other set formed by a plurality of transverse inner regions having straight facets on planes orthogonal to the emitter axis each redirecting light received from the emitter ; and • an outer surface receiving redirected emitter light and comprising outer-surface stepwise discontinuities formed by a plurality of transverse outer regions each redirecting the received light. • an inner surface defining an inner cavity about the emitter axis , the inner surface comprising at least two distinct sets of inner-surface stepwise discontinuities , one set formed by a plurality of transverse inner regions having curved facets on planes normal to the emitter axis , and the other set formed by a plurality of transverse inner regions having straight facets on planes orthogonal to the emitter axis each redirecting light received from the emitter ; and • an outer surface receiving redirected emitter light and comprising outer-surface stepwise discontinuities formed by a plurality of transverse outer regions each redirecting the received light.
A method for providing data communication for machine type communication, MTC, devices in a group-based wireless communication, the method comprising steps of: receiving, by a cluster head , a message for data traffic transfer from one or more MTC devices when the one or more MTC devices are activated, wherein the message comprises at least one of an activation status, a buffer occupancy status or a delay tolerance of the one or more MTC devices; determining, by the cluster head , availability of one or more network resources for transferring the data traffic based on the at least one of the activation status, the buffer occupancy status or the delay tolerance of the one or more MTC devices; establishing, by the cluster head , a dedicated connection with a base station for transferring the data traffic from the one or more MTC devices to the base station based on the availability of the one or more network resources; and transferring, by the cluster head , the data traffic from the one or more MTC devices to the base station through the dedicated connection established between the cluster head and the base station, wherein the cluster head is selected from among the one or more MTC devices which are members of a cluster associated with the cluster head. receiving, by a cluster head , a message for data traffic transfer from one or more MTC devices when the one or more MTC devices are activated, wherein the message comprises at least one of an activation status, a buffer occupancy status or a delay tolerance of the one or more MTC devices; determining, by the cluster head , availability of one or more network resources for transferring the data traffic based on the at least one of the activation status, the buffer occupancy status or the delay tolerance of the one or more MTC devices; establishing, by the cluster head , a dedicated connection with a base station for transferring the data traffic from the one or more MTC devices to the base station based on the availability of the one or more network resources; and transferring, by the cluster head , the data traffic from the one or more MTC devices to the base station through the dedicated connection established between the cluster head and the base station, wherein the cluster head is selected from among the one or more MTC devices which are members of a cluster associated with the cluster head.
A system for providing haptic feedback to a user, the system comprising: a first piezoelectric transducer array comprising multiple piezoelectric transducers , respective ones of which being configured to be disposed on predetermined positions on the user and being configured to generate and transmit a second signal at a second frequency, and at least one of which also being configured to generate a first signal at a first frequency; and a second piezoelectric transducer array comprising multiple piezoelectric transducers , respective ones of which configured to receive the second signal transmitted from the first piezoelectric transducer array, and at least one of which configured to: generate and transmit a third signal to at least one piezoelectric transducer of the first piezoelectric transducer array , whereby to cause the at least one piezoelectric transducer of the first piezoelectric transducer array to initiate generation of the first signal at said at least one piezoelectric transducer of the first piezoelectric transducer array , the first signal at the first frequency suitable for providing a haptic feedback signal for a user , wherein the second signal is configured to locate the position of a transducer of the first piezoelectric transducer array using transducers of the second transducer array . a first piezoelectric transducer array comprising multiple piezoelectric transducers , respective ones of which being configured to be disposed on predetermined positions on the user and being configured to generate and transmit a second signal at a second frequency, and at least one of which also being configured to generate a first signal at a first frequency; and a second piezoelectric transducer array comprising multiple piezoelectric transducers , respective ones of which configured to receive the second signal transmitted from the first piezoelectric transducer array, and at least one of which configured to: generate and transmit a third signal to at least one piezoelectric transducer of the first piezoelectric transducer array , whereby to cause the at least one piezoelectric transducer of the first piezoelectric transducer array to initiate generation of the first signal at said at least one piezoelectric transducer of the first piezoelectric transducer array , the first signal at the first frequency suitable for providing a haptic feedback signal for a user , wherein the second signal is configured to locate the position of a transducer of the first piezoelectric transducer array using transducers of the second transducer array .
A power supply method of an electric vehicle charger in which multiple chargers are connected to the same power supply source, the power supply method comprising operations of: allowing (S100) an electric vehicle to be connected to a first charger; generating (S200) a charging start signal from the first charger; receiving (S300), by one or more other chargers except the first charger, the charging start signal; generating (S400) a charging state signal from the other chargers except the first charger; receiving (S500), by the first charger, the charging state signal; determining (S600) the amount of supplied power of the first charger; terminating (S700) the charging of a second charger; generating (S800) a charging termination signal from the second charger; receiving (S900), by one or more other chargers except the second charger, the charging termination signal; and determining (S1000) the amount of supplied power of the one or more other chargers except the second charger, and wherein the operation of determining (S1000) the amount of supplied power of the one or more other chargers except the second charger comprises operations of: checking a charging start time signal received by the one or more other chargers except the second charger; and determining the amount of power distributed to the one or more other chargers except the second charger. allowing (S100) an electric vehicle to be connected to a first charger; generating (S200) a charging start signal from the first charger; receiving (S300), by one or more other chargers except the first charger, the charging start signal; generating (S400) a charging state signal from the other chargers except the first charger; receiving (S500), by the first charger, the charging state signal; determining (S600) the amount of supplied power of the first charger; terminating (S700) the charging of a second charger; generating (S800) a charging termination signal from the second charger; receiving (S900), by one or more other chargers except the second charger, the charging termination signal; and determining (S1000) the amount of supplied power of the one or more other chargers except the second charger, and wherein the operation of determining (S1000) the amount of supplied power of the one or more other chargers except the second charger comprises operations of: checking a charging start time signal received by the one or more other chargers except the second charger; and determining the amount of power distributed to the one or more other chargers except the second charger. checking a charging start time signal received by the one or more other chargers except the second charger; and determining the amount of power distributed to the one or more other chargers except the second charger.
A locking system , with a master key for programming and actuating a locking device , with a mobile unit for programming the master key , with a data-transfer apparatus for transmitting data between the mobile unit and the master key in the course of programming, characterized by an acoustic auxiliary apparatus comprising an acoustic transmitter arranged on the master key for transmitting an acoustic signal to an acoustic receiver associated with the mobile unit , wherein the master key and the mobile unit are configured to enable a connection via the data-transfer apparatus between the mobile unit and the master key only under the condition that the mobile unit authenticates itself with respect to the master key , taking into account the acoustic signal transmitted by the master key .
A method for controlling an ultrasonic motor adapted to drive a rotary shaft of a surveying instrument in response to a drive signal, characterized in that in a low-speed rotation range of the ultrasonic motor, a ratio of an acceleration period (Ta) as a time of application of the drive signal in a control cycle (TM)is controlled, and 0th to k-1-th sections are set by dividing the control cycle by k, wherein k is a natural number not less than 2, a starting time of the acceleration period is set in any of the sections, and the starting time is regularly shifted by one section for consecutive control cycles. in a low-speed rotation range of the ultrasonic motor, a ratio of an acceleration period (Ta) as a time of application of the drive signal in a control cycle (TM)is controlled, and 0th to k-1-th sections are set by dividing the control cycle by k, wherein k is a natural number not less than 2, a starting time of the acceleration period is set in any of the sections, and the starting time is regularly shifted by one section for consecutive control cycles.
A system for extracting blood samples from dried blood spots resulting in near neat-level blood samples, comprising: a sealable micro-centrifuge tube and a buffer solution in said sealable micro-centrifuge tube , wherein the sealable micro-centrifuge tube comprises a lid for closing the sealable micro-centrifuge tube ; a paper elevator in said sealable micro-centrifuge tube , the paper elevator comprising a middle section that fits within the diameter of the sealable micro-centrifuge tube and has holes for passing blood from one side of the sealable micro-centrifuge tube to the other while retaining paper on one side only; at least one strip of absorbent paper carrying a dried blood sample obtained from a dried blood holding device, wherein the at least one strip of absorbent paper is in said sealable micro-centrifuge tube on top of said middle section of said paper elevator , such that, in an upright position of the sealable micro-centrifuge tube the paper elevator raises the paper above the bottom of the sealable micro-centrifuge tube and above the level of the buffer solution ; and a centrifuge. a sealable micro-centrifuge tube and a buffer solution in said sealable micro-centrifuge tube , wherein the sealable micro-centrifuge tube comprises a lid for closing the sealable micro-centrifuge tube ; a paper elevator in said sealable micro-centrifuge tube , the paper elevator comprising a middle section that fits within the diameter of the sealable micro-centrifuge tube and has holes for passing blood from one side of the sealable micro-centrifuge tube to the other while retaining paper on one side only; at least one strip of absorbent paper carrying a dried blood sample obtained from a dried blood holding device, wherein the at least one strip of absorbent paper is in said sealable micro-centrifuge tube on top of said middle section of said paper elevator , such that, in an upright position of the sealable micro-centrifuge tube the paper elevator raises the paper above the bottom of the sealable micro-centrifuge tube and above the level of the buffer solution ; and a centrifuge.
A method for deploying a virtual machine or a container in a multi-access edge computing, MEC, system, wherein the method comprises: receiving , by a unified orchestration function entity , a deployment request, wherein the deployment request is used to request to deploy an instance of an application, the deployment request comprises an identifier, ID, and orchestration information of the application, and the orchestration information is used to indicate resources required for running the instance of the application; determining , by the unified orchestration function entity , a deployment manner of the application based on the deployment request, wherein the deployment manner of the application is container deployment or virtual machine, VM, deployment; and if the deployment manner of the application is the container deployment, sending , by the unified orchestration function entity , a first resource allocation request to an architecture manager, wherein the first resource allocation request is used to request resources required for deploying a container capable of running the instance of the application, wherein the architecture manager is a container infrastructure manager, CIM ; or if the deployment manner of the application is the VM deployment, sending , by the unified orchestration function entity , a second resource allocation request to a virtualized infrastructure manager, VIM , wherein the second resource allocation request is used to request resources required for deploying a VM capable of running the instance of the application. receiving , by a unified orchestration function entity , a deployment request, wherein the deployment request is used to request to deploy an instance of an application, the deployment request comprises an identifier, ID, and orchestration information of the application, and the orchestration information is used to indicate resources required for running the instance of the application; determining , by the unified orchestration function entity , a deployment manner of the application based on the deployment request, wherein the deployment manner of the application is container deployment or virtual machine, VM, deployment; and if the deployment manner of the application is the container deployment, sending , by the unified orchestration function entity , a first resource allocation request to an architecture manager, wherein the first resource allocation request is used to request resources required for deploying a container capable of running the instance of the application, wherein the architecture manager is a container infrastructure manager, CIM ; or if the deployment manner of the application is the VM deployment, sending , by the unified orchestration function entity , a second resource allocation request to a virtualized infrastructure manager, VIM , wherein the second resource allocation request is used to request resources required for deploying a VM capable of running the instance of the application.
A knitted band comprising: a body comprising an inner face, an opposite outer face, a top edge , and an opposite bottom edge , the inner face configured as to be oriented closer to a wearer's skin than the outer face when the knitted band encircles a portion of a wearer in an as-worn position; an upper structural zone located along and forms the top edge and comprising a first knit stitch pattern, the upper structural zone having a first width as measured between the inner face and the outer face; a lower structural zone that runs near the bottom edge and comprising a second knit stitch pattern, the lower structural zone having a second width as measured between the inner face and the outer face; and ventilation zones located between the upper structural zone and the lower structural zone, each of the ventilation zones comprising a third knit stitch pattern and having a third width as measured between the inner face and the outer face, wherein both the structural zones and the ventilation zones are integrally knit by dropping different yarns into and out of a single knitting event that is used to form both the structural zones and the ventilation zones, and wherein the third width of each of the ventilation zones is less than the first width of the upper structural zone, and less than the second width of the lower structural zone.
An optical sensor for determining at least one parameter in a medium consisting of at least one matrix, which contains at least one fluorescent dye which is carried by a transparent support and which has a soluble layer on the side facing the medium vis-à-vis the medium to be measured, wherein the soluble layer vis-à-vis the medium to be measured consists of one or more sugar(s), inorganic salt(s), amino acid(s), glycerin, peptide(s), protein(s), or a combination thereof.
A floor cleaner, comprising a cleaning roller for cleaning ground, a clearing component operating to clearing the cleaning roller , a power unit , and a scraper ; wherein the clearing component comprises a rotation body and a plurality of clearing elements disposed on the rotation body for clearing a surface of the cleaning roller ; and the power unit operates to drive the rotation body and the clearing elements to rotate along with the cleaning roller in a same direction, wherein the clearing elements are hair brush; at least one group of hair brush is provided, and each group of the hair brush is disposed along a center line of rotation of the rotation body in the shape of wave, characterized by: an outer wall of the scraper facing the cleaning roller being designed as an arc such that a gap exists between the scraper and the cleaning roller , wherein the gap operates as a guide channel to collect trash from the ground.
Flexible pipe element for the exhaust system of a combustion engine, having a gastight metal cladding pipe which has at least two ring-corrugated or helicallycorrugated bellows sections in order to form flexible pipe sections, which are separated by a non-corrugated, substantially inflexible tube section , and having a metal hose extending in the interior of the cladding pipe, which metal hose is fastened to the tube section , wherein the cladding pipe has axial natural frequencies and forms vibration nodes in the case of an axial resonance vibration, wherein the two pipe sections are designed such that at least the modes of vibration of the low axial natural frequencies in the frequency range of 20 Hz - 300 Hz of the cladding pipe , in particular of the first to the fifth, preferably the first to the third natural frequencies, have no vibration nodes in the region of the fastening of the metal hose to the tube section .
A door device for a car body of a public passenger transport vehicle, in particular a rail vehicle , comprising - a door opening with a first door pillar region and a second door pillar region , a door width extending in a horizontal direction and with a door sill , - a first holding device arranged on the first door pillar region and having a first holding section , and - a second holding device arranged on the second door pillar region and having a second holding section , - characterized in that the first holding section is arranged movably on the first door pillar region from a stowed position, in which the first holding section is moved out of the door opening , into a working position, in which the first holding section is moved into the door opening , in such a way that a holding distance between the first holding section and second holding section is smaller in the working position than in the stowed position. - a door opening with a first door pillar region and a second door pillar region , a door width extending in a horizontal direction and with a door sill , - a first holding device arranged on the first door pillar region and having a first holding section , and - a second holding device arranged on the second door pillar region and having a second holding section , - characterized in that the first holding section is arranged movably on the first door pillar region from a stowed position, in which the first holding section is moved out of the door opening , into a working position, in which the first holding section is moved into the door opening , in such a way that a holding distance between the first holding section and second holding section is smaller in the working position than in the stowed position.