mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: setting a direction for transferring energy between a first device (100, 300, 300a, 300b, 400) comprising a first energy reservoir and a second device (100, 300, 300a, 300b, 400) comprising a second energy reservoir, wherein the direction of the energy transfer establishes that one of the first and second device is a source device and another is a target device, and the method further comprising: determining, if the target device has an electrical load, whether the energy from the source device is to be directed to the energy reservoir of the target device, to the electrical load of the target device, or to be shared between the energy reservoir and the electrical load of the target device. setting a direction for transferring energy between a first device (100, 300, 300a, 300b, 400) comprising a first energy reservoir and a second device (100, 300, 300a, 300b, 400) comprising a second energy reservoir, wherein the direction of the energy transfer establishes that one of the first and second device is a source device and another is a target device, and the method further comprising: determining, if the target device has an electrical load, whether the energy from the source device is to be directed to the energy reservoir of the target device, to the electrical load of the target device, or to be shared between the energy reservoir and the electrical load of the target device. determining, if the target device has an electrical load, whether the energy from the source device is to be directed to the energy reservoir of the target device, to the electrical load of the target device, or to be shared between the energy reservoir and the electrical load of the target device.
A method for creating a port group on a specified forwarding device on a software defined network, SDN, wherein the method comprises: generating, by a first SDN controller, a specified identifier formed by combining, according to a predetermined sequence, a device identifier of a first forwarding device in a preset path, a device identifier of a last forwarding device in the preset path, and a device identifier of the specified forwarding device in the preset path; and creating, by the first SDN controller on a second SDN controller, a specified port group corresponding to the specified identifier, and enabling the second SDN controller to deliver the specified port group to the specified forwarding device, wherein the specified port group is used to establish the preset path on the specified forwarding device. generating, by a first SDN controller, a specified identifier formed by combining, according to a predetermined sequence, a device identifier of a first forwarding device in a preset path, a device identifier of a last forwarding device in the preset path, and a device identifier of the specified forwarding device in the preset path; and creating, by the first SDN controller on a second SDN controller, a specified port group corresponding to the specified identifier, and enabling the second SDN controller to deliver the specified port group to the specified forwarding device, wherein the specified port group is used to establish the preset path on the specified forwarding device.
A system for imaging a tissue, comprising: an apparatus for obtaining an image of a tissue, an image processing apparatus for determining a virtual marker, wherein said image processing apparatus is capable of forming a coordinate system for determination of basis vectors, organizing said images into a time series of pairs, performing a preparatory image analysis, such as particle image velocimetry to obtain vector field time series, and placing VMs upon the initial images in order to align said VMs with the basis vectors, determining instantaneous dimension components of each VM, establishing a linear strain time series for each VM, and establishing an angular strain time series on each VM, and a display apparatus for recording and displaying the kinematics of the tissue, wherein the image processing apparatus is configured to populate images with artificial particles. an apparatus for obtaining an image of a tissue, an image processing apparatus for determining a virtual marker, wherein said image processing apparatus is capable of forming a coordinate system for determination of basis vectors, organizing said images into a time series of pairs, performing a preparatory image analysis, such as particle image velocimetry to obtain vector field time series, and placing VMs upon the initial images in order to align said VMs with the basis vectors, determining instantaneous dimension components of each VM, establishing a linear strain time series for each VM, and establishing an angular strain time series on each VM, and a display apparatus for recording and displaying the kinematics of the tissue, wherein the image processing apparatus is configured to populate images with artificial particles.
A gel soap dispenser assembly comprising: a dispenser housing; a reservoir assembly further comprising: a reservoir containing a gel soap and an inert propellant; a stem valve; and a cylindrical pump further comprising: a piston chamber; a piston; a spring holding said piston in a rest position; an opening; and a seal closing said opening when in a rest position; a first actuator for tilting said stem valve on said reservoir; a second actuator for pushing said cylindrical pump on said reservoir in a downward direction; a gear assembly operatively connected to said first and second actuators (460, 470); a motor operatively connected to said gear train; a power supply in electrical communication with said motor; a sensor assembly; and circuitry containing logic which receives a signal from said sensor assembly and allows said power supply to provide energy to said motor. a dispenser housing; a reservoir assembly further comprising: a reservoir containing a gel soap and an inert propellant; a stem valve; and a cylindrical pump further comprising: a piston chamber; a piston; a spring holding said piston in a rest position; an opening; and a seal closing said opening when in a rest position; a reservoir containing a gel soap and an inert propellant; a stem valve; and a cylindrical pump further comprising: a piston chamber; a piston; a spring holding said piston in a rest position; an opening; and a seal closing said opening when in a rest position; a piston chamber; a piston; a spring holding said piston in a rest position; an opening; and a seal closing said opening when in a rest position; a first actuator for tilting said stem valve on said reservoir; a second actuator for pushing said cylindrical pump on said reservoir in a downward direction; a gear assembly operatively connected to said first and second actuators (460, 470); a motor operatively connected to said gear train; a power supply in electrical communication with said motor; a sensor assembly; and circuitry containing logic which receives a signal from said sensor assembly and allows said power supply to provide energy to said motor.
A computerized system comprising: a buildout service in a first cloud computing environment remote from a second cloud computing environment (102A, 102B), the second cloud computing environment comprising a hardware proxy (136A, 136B) and maintaining restricted data within the confines of the second cloud computing environment, wherein the restricted data are not accessible to the buildout service in the first computing environment, wherein the buildout service is configured to: determine that one or more network devices are being added to the second cloud computing environment; obtain one or more configuration templates to configure the one or more network devices; populate the one or more configuration templates with values from non-restricted data from the second cloud computing environment available to the buildout service; send, to the hardware proxy (136A, 136B) in the second cloud computing environment, one or more requests to configure the one or more network devices, the one or more requests including the populated one or more configuration templates; and cause the hardware proxy to configure the one or more network devices using the one or more configuration templates and the restricted data maintained in the second cloud computing environment and not accessible to the buildout service, wherein configuring the one or more network devices comprises updating the populated one or more configuration templates for the one or more network devices with values from the restricted data maintained in the second cloud computing environment and issuing commands to the one or more network devices to configure the one or more network devices based on the one or more populated configuration templates. determine that one or more network devices are being added to the second cloud computing environment; obtain one or more configuration templates to configure the one or more network devices; populate the one or more configuration templates with values from non-restricted data from the second cloud computing environment available to the buildout service; send, to the hardware proxy (136A, 136B) in the second cloud computing environment, one or more requests to configure the one or more network devices, the one or more requests including the populated one or more configuration templates; and cause the hardware proxy to configure the one or more network devices using the one or more configuration templates and the restricted data maintained in the second cloud computing environment and not accessible to the buildout service, wherein configuring the one or more network devices comprises updating the populated one or more configuration templates for the one or more network devices with values from the restricted data maintained in the second cloud computing environment and issuing commands to the one or more network devices to configure the one or more network devices based on the one or more populated configuration templates.
A sliding board, comprising: • an upper assembly comprising at least one reinforcing layer; • a lower assembly comprising at least one reinforcing layer and a sliding sole; • a core made of a material injected between said lower and upper assemblies, and laterally bordered by edge elements (25, 26); • at least one holding piece extending from one of the edge elements towards the inside of the core, said holding piece having a groove open upwards or downwards; • and a longitudinal reinforcing element (31,32) positioned in said groove and extending longitudinally into the injected material of the core, characterised in that the portion of the longitudinal reinforcement element (31,32) extending beyond the opening of the groove upwards or downwards have two opposite lateral faces in contact with the injected material of the core. • an upper assembly comprising at least one reinforcing layer; • a lower assembly comprising at least one reinforcing layer and a sliding sole; • a core made of a material injected between said lower and upper assemblies, and laterally bordered by edge elements (25, 26); • at least one holding piece extending from one of the edge elements towards the inside of the core, said holding piece having a groove open upwards or downwards; • and a longitudinal reinforcing element (31,32) positioned in said groove and extending longitudinally into the injected material of the core,
A data packet transmission method, comprising: receiving, by a first terminal, a handshake request packet that is sent by a second terminal and carries an address and a session identifier of the second terminal and parameters that need to be negotiated; storing, by the first terminal, a mapping between the address and the session identifier of the second terminal that are carried in the handshake request packet and a certain session identifier of the first terminal, wherein the session identifier of the second terminal that is carried in the handshake request packet and the certain session identifier of the first terminal are used to represent a session connection passing through the second terminal and the first terminal; receiving, by the first terminal, a data packet transmitted by the second terminal, and querying whether the mapping between the address and the session identifier of the second terminal that are carried in the data packet and the certain session identifier of the first terminal is stored; if the mapping is stored, transmitting, by the first terminal, through the session connection represented by using the session identifier of the second terminal and the certain session identifier of the first terminal, the data packet to a server for processing; and sending, by the first terminal, the second terminal a handshake response packet carrying the certain session identifier of the first terminal and negotiated parameters. receiving, by a first terminal, a handshake request packet that is sent by a second terminal and carries an address and a session identifier of the second terminal and parameters that need to be negotiated; storing, by the first terminal, a mapping between the address and the session identifier of the second terminal that are carried in the handshake request packet and a certain session identifier of the first terminal, wherein the session identifier of the second terminal that is carried in the handshake request packet and the certain session identifier of the first terminal are used to represent a session connection passing through the second terminal and the first terminal; receiving, by the first terminal, a data packet transmitted by the second terminal, and querying whether the mapping between the address and the session identifier of the second terminal that are carried in the data packet and the certain session identifier of the first terminal is stored; if the mapping is stored, transmitting, by the first terminal, through the session connection represented by using the session identifier of the second terminal and the certain session identifier of the first terminal, the data packet to a server for processing; and sending, by the first terminal, the second terminal a handshake response packet carrying the certain session identifier of the first terminal and negotiated parameters.
A method in a first device for informing a second device that an identity associated with the first device is at a certain location, the method comprising: obtaining (202, 403) non-truncated information about the location of the first device; obtaining (204, 404) a number of data bits based on a coverage distance of the broadcasting of the message and based on a predefined precision of the non-truncated location information; and: truncating (204, 405) the non-truncated location information to the obtained number of bits; and broadcasting (206, 411), by means of device to device, D2D, communication, a message to be received by the second device, wherein the message comprises the location information and an identity information associated with a user of the first device, and wherein the location information is transmitted on a first communications resource and the identity information is transmitted on a second communications resource, wherein the location information comprised in the message is the truncated location information. obtaining (202, 403) non-truncated information about the location of the first device; obtaining (204, 404) a number of data bits based on a coverage distance of the broadcasting of the message and based on a predefined precision of the non-truncated location information; and: truncating (204, 405) the non-truncated location information to the obtained number of bits; and broadcasting (206, 411), by means of device to device, D2D, communication, a message to be received by the second device, wherein the message comprises the location information and an identity information associated with a user of the first device, and wherein the location information is transmitted on a first communications resource and the identity information is transmitted on a second communications resource, wherein the location information comprised in the message is the truncated location information. truncating (204, 405) the non-truncated location information to the obtained number of bits; and broadcasting (206, 411), by means of device to device, D2D, communication, a message to be received by the second device, wherein the message comprises the location information and an identity information associated with a user of the first device, and wherein the location information is transmitted on a first communications resource and the identity information is transmitted on a second communications resource, wherein the location information comprised in the message is the truncated location information.
An insect trap, comprising; a trap portion and a base portion, the base portion comprising a lighting element, a mounting portion, wherein the lighting element is configured to provide light to the trap portion, and wherein the mounting portion is configured to communicate with and receive power from a power source; the trap portion is configured to removably engage with the base portion and receive light from the base portion when engaged therewith, and wherein the trap portion comprises an enclosure comprising an adhesive surface and a first opening through which an insect may enter the enclosure, wherein the adhesive surface is at least partially contained within the enclosure and is configured to adhere to an insect; characterized in that the base portion comprises a switch; and the trap portion comprises a downwardly protruding tab that displaces the switch of the base portion to close the switch when the insect trap portion is mounted on the base portion. a trap portion and a base portion, the base portion comprising a lighting element, a mounting portion, the trap portion is configured to removably engage with the base portion and receive light from the base portion when engaged therewith, and wherein the trap portion comprises an enclosure comprising an adhesive surface and a first opening through which an insect may enter the enclosure, wherein the adhesive surface is at least partially contained within the enclosure and is configured to adhere to an insect; characterized in that the base portion comprises a switch; and the trap portion comprises a downwardly protruding tab that displaces the switch of the base portion to close the switch when the insect trap portion is mounted on the base portion.
An apparatus for use with a tensioning cable and transverse bolts (226, 228) for causing compression between bone elements (230, 232), the apparatus comprising: an elongated shaft having: a proximal end, a distal end, and an external surface; a longitudinal inner bore; a compression slot oriented longitudinally along the elongated shaft and reaching transversely from the external surface to the longitudinal inner bore, wherein the compression slot is configured to allow longitudinal movement of the elongated shaft relative to a first transverse bolt extending through the compression slot into a first bone element; at least one static fixation aperture configured to accept a second transverse bolt that may be extended at least partially through a second bone element and the static fixation aperture so as to substantially fix the second transverse bolt and the elongated shaft to second bone element; and a first channel extending longitudinally along the longitudinal inner bore, the first channel being in communication with the compression slot; characterized in that the apparatus further comprises a second channel, the first channel and the second channel being substantially opposed to one another on either side of the longitudinal inner bore, the channels (218, 220) being recessed into the wall of the elongated shaft along the longitudinal inner bore as grooves, thereby being configured to receive a section of a tensioning cable extending within the elongated shaft radially outward of the longitudinal inner bore. a proximal end, a distal end, and an external surface; a longitudinal inner bore; a compression slot oriented longitudinally along the elongated shaft and reaching transversely from the external surface to the longitudinal inner bore, wherein the compression slot is configured to allow longitudinal movement of the elongated shaft relative to a first transverse bolt extending through the compression slot into a first bone element; at least one static fixation aperture configured to accept a second transverse bolt that may be extended at least partially through a second bone element and the static fixation aperture so as to substantially fix the second transverse bolt and the elongated shaft to second bone element; and a first channel extending longitudinally along the longitudinal inner bore, the first channel being in communication with the compression slot; characterized in that the apparatus further comprises a second channel, the first channel and the second channel being substantially opposed to one another on either side of the longitudinal inner bore, the channels (218, 220) being recessed into the wall of the elongated shaft along the longitudinal inner bore as grooves, thereby being configured to receive a section of a tensioning cable extending within the elongated shaft radially outward of the longitudinal inner bore.
An urea production process comprising a step of synthesis of urea by reaction of ammonia and carbon dioxide, at least part of the carbon dioxide for the urea reaction synthesis being produced in an oxy-combustion process; characterised in that the oxy-combustion process is a flameless oxy-combustion process.
A method for detecting the presence of a probe within a sample overlaid on a substrate, wherein the probe comprises a plurality of spatially arranged labels, wherein a first label in the plurality of labels is associated with a first position on the substrate that emits light in a first wavelength range in the plurality of different wavelength ranges and a second label in the plurality of labels is associated with a second position on the substrate that emits light in a second wavelength range in the plurality of different wavelength ranges, the method comprising: identifying a plurality of labels, in a plurality of light images, that are proximate to each other on the substrate, wherein a spatial order of the plurality of labels determines a string sequence of the plurality of labels, wherein each light image in the plurality of light images is for light received from the sample at a wavelength range in a plurality of different wavelength ranges; and determining whether the string sequence of the plurality of labels comprises a valid reporter sequence, wherein when the string sequence of the plurality of labels is confirmed as a valid reporter sequence, the plurality of labels is deemed to be the probe; and when the string sequence of the plurality of labels is not confirmed as a valid reporter sequence, the plurality of labels is deemed to not be the probe. identifying a plurality of labels, in a plurality of light images, that are proximate to each other on the substrate, wherein a spatial order of the plurality of labels determines a string sequence of the plurality of labels, wherein each light image in the plurality of light images is for light received from the sample at a wavelength range in a plurality of different wavelength ranges; and determining whether the string sequence of the plurality of labels comprises a valid reporter sequence, wherein when the string sequence of the plurality of labels is confirmed as a valid reporter sequence, the plurality of labels is deemed to be the probe; and when the string sequence of the plurality of labels is not confirmed as a valid reporter sequence, the plurality of labels is deemed to not be the probe. when the string sequence of the plurality of labels is confirmed as a valid reporter sequence, the plurality of labels is deemed to be the probe; and when the string sequence of the plurality of labels is not confirmed as a valid reporter sequence, the plurality of labels is deemed to not be the probe.