mhurhangee/ep-ind-claims huggingface dataset:
A method for pairing a wireless ultrasound probe with a mobile ultrasound system having a radio comprising: locating a wireless ultrasound probe with a radio within a predetermined range of a mobile ultrasound system with a radio; determining, at the mobile ultrasound system, that the wireless ultrasound probe present is within the predetermined range; and pairing the wireless ultrasound probe and mobile ultrasound system to be in communication with each other when the wireless ultrasound probe is determined to be present in the predetermined range and when the mobile ultrasound system is determined not to be in communication with another wireless ultrasound probe. locating a wireless ultrasound probe with a radio within a predetermined range of a mobile ultrasound system with a radio; determining, at the mobile ultrasound system, that the wireless ultrasound probe present is within the predetermined range; and pairing the wireless ultrasound probe and mobile ultrasound system to be in communication with each other when the wireless ultrasound probe is determined to be present in the predetermined range and when the mobile ultrasound system is determined not to be in communication with another wireless ultrasound probe.
An analysis apparatus comprising: a plurality of streams (101, 102) each including a separation column (120, 121) for separating a sample, and a pump (103, 104) for liquid-delivering a sample or a solvent to the separation column; a detector for detecting a sample separated by the separation column of the plurality of streams; and a control unit for controlling operation of the plurality of streams and the detector, wherein each of the plurality of streams (101, 102) includes a verification flow path (122, 123) connected in parallel to the separation column (120, 121), and the control unit is configured to supply a verification sample to the verification flow path (122, 123) of the plurality of streams (101, 102), and correct one or more set values of the plurality of streams based on a holding time of the verification sample introduced from the verification flow paths (122, 123) into the detector, characterized in that the control unit is configured to correct the set values of the plurality of streams (101, 102) based on a difference between a holding time of the verification sample stored in advance in the control unit and the holding time of the verification sample introduced into the detector, the one or more set values of the streams being a liquid-delivery flow rate and/or a gradient grade of the pump (103, 104). a plurality of streams (101, 102) each including a separation column (120, 121) for separating a sample, and a pump (103, 104) for liquid-delivering a sample or a solvent to the separation column; a separation column (120, 121) for separating a sample, and a pump (103, 104) for liquid-delivering a sample or a solvent to the separation column; a detector for detecting a sample separated by the separation column of the plurality of streams; and a control unit for controlling operation of the plurality of streams and the detector, wherein each of the plurality of streams (101, 102) includes a verification flow path (122, 123) connected in parallel to the separation column (120, 121), and the control unit is configured to supply a verification sample to the verification flow path (122, 123) of the plurality of streams (101, 102), and correct one or more set values of the plurality of streams based on a holding time of the verification sample introduced from the verification flow paths (122, 123) into the detector, characterized in that the control unit is configured to correct the set values of the plurality of streams (101, 102) based on a difference between a holding time of the verification sample stored in advance in the control unit and the holding time of the verification sample introduced into the detector, the one or more set values of the streams being a liquid-delivery flow rate and/or a gradient grade of the pump (103, 104).
A hybrid induction heating and welding assembly comprising: - a protective outer housing; - a metal working tool configured to perform a metal working process on at least one workpiece, wherein the metal forming tool is at least partially enclosed within the protective outer housing; and - at least one induction heating coil configured to apply induction heat to the at least one workpiece, wherein the at least one induction heating coil is disposed proximate the metal forming tool, and wherein the at least one induction heating coil is at least partially enclosed within the protective outer housing, characterized by a coil protective housing disposed directly adjacent the at least one induction heating coil and between the metal working tool and the at least one induction heating coil, wherein said coil protective housing is made of ceramic materials and optionally also of higher strength polymer and comprises at least one ceramic piece, further comprising a flux concentrator material at least partially disposed around the at least one induction heating coil and at least partially disposed between the heating coil and any ceramic piece or pieces of the coil protective housing. - a protective outer housing; - a metal working tool configured to perform a metal working process on at least one workpiece, wherein the metal forming tool is at least partially enclosed within the protective outer housing; and - at least one induction heating coil configured to apply induction heat to the at least one workpiece, wherein the at least one induction heating coil is disposed proximate the metal forming tool, and wherein the at least one induction heating coil is at least partially enclosed within the protective outer housing,
A method in a wireless communication device for transmitting an alarm signal to a radio access node, the method comprising: - detecting jamming of a downlink signal transmitted from the radio access node; characterized in further comprising: - transmitting, over a non cell-specific contention-based uplink radio channel, an alarm signal comprising information relating to an identity associated with the wireless communication device, wherein the parameters required for transmitting on the non cell-specific contention-based uplink radio channel are preconfigured in the wireless communication device. - detecting jamming of a downlink signal transmitted from the radio access node; - transmitting, over a non cell-specific contention-based uplink radio channel, an alarm signal comprising information relating to an identity associated with the wireless communication device, wherein the parameters required for transmitting on the non cell-specific contention-based uplink radio channel are preconfigured in the wireless communication device.
Folding and gluing machine for the manufacture of folding boxes using cutouts running essentially in a planar manner and the outer surface downwards, characterised in that it comprises at least one working device able to intervene on the outer surface of the cutouts, and in that each working device comprises first turning means capable of turning over each cutout so as to position the outer surface thereof on the top, transport means which are placed downstream of the first turning means and which are capable of moving each cutout with the outer surface thereof on the top, action means capable of implementing at least one of the functions consisting in printing the outer surface of each cutout on the one hand, and in monitoring the outer surface of each cutout on the other hand, during the displacement of said cutout by the transport means, as well as second turning means which are placed downstream of the transport means and which are capable of turning over each cutout in order to reposition the outer surface thereof downwards.
A blender base comprising: a base frame; a motor housing supported above said base frame; a pedestal supported by said motor housing and configured to receive a blender container thereon, said pedestal comprising at least one post connected to at least one connection portion of said motor housing; an outer shell connected to said base frame and connected to said pedestal at one or more outer shell connection points; and wherein said motor housing is isolated from direct contact with said base frame and isolated from direct contact with said pedestal. a base frame; a motor housing supported above said base frame; a pedestal supported by said motor housing and configured to receive a blender container thereon, said pedestal comprising at least one post connected to at least one connection portion of said motor housing; an outer shell connected to said base frame and connected to said pedestal at one or more outer shell connection points; and wherein said motor housing is isolated from direct contact with said base frame and isolated from direct contact with said pedestal.
A method, comprising: providing a device for application to the skin of a subject, the device able to deliver and/or receive fluid to or from the subject; exposing the device to a scannable target possessed by the subject such that the device is able to optically scan the scannable target to indicate that the subject is the correct subject and to activate the device, wherein the scannable target comprises a printed pattern; and applying the device to the skin of a subject, wherein the device cannot be activated without exposure of the device to the scannable target possessed by the subject.
A dose calibrator, comprising: one or more radiation sources; one or more solid-state detectors; and one or more plates positioned between the one or more radiation sources and the one or more solid-state detectors, wherein the one or more solid-state detectors are configured to capture one or more images based on emissions received from the one or more radiation sources through the one or more plates for estimating activity of the one or more radiation sources, characterized in that a processing module of the dose calibrator is configured to adaptively adjust one or more system parameters on-the-fly during operation of the dose calibrator, the one or more system parameters comprising at least one of: sizes and/or number of pinholes in the one or more plates, a thickness of the one or more plates, a distance between the one or more radiation sources and the one or more plates, a distance between the one or more solid-state detectors and the one or more plates. one or more radiation sources; one or more solid-state detectors; and one or more plates positioned between the one or more radiation sources and the one or more solid-state detectors, wherein the one or more solid-state detectors are configured to capture one or more images based on emissions received from the one or more radiation sources through the one or more plates for estimating activity of the one or more radiation sources, a processing module of the dose calibrator is configured to adaptively adjust one or more system parameters on-the-fly during operation of the dose calibrator, the one or more system parameters comprising at least one of: sizes and/or number of pinholes in the one or more plates, a thickness of the one or more plates, a distance between the one or more radiation sources and the one or more plates, a distance between the one or more solid-state detectors and the one or more plates.
A positioner (100, 100A) for driving a regulator valve by converting an inputted electric signal into a pneumatic signal, comprising: an electric circuit module adapted to process electric signals; an electropneumatic converter adapted to convert electric signals that have been processed by the electric circuit module into pneumatic signals; an explosion proof container for containing, in an interior space, the electric circuit module and the electropneumatic converter; and a pneumatic amplifier, disposed outside of the explosion proof container, adapted to amplify the pneumatic signal converted by the electropneumatic converter, whereby, the explosion proof container is formed with air flow paths (Ls1, Ls2, Lo1, Lo2) for the air that is fed into the pneumatic amplifier and the air that is fed out of the pneumatic amplifier, in a thick portion between an inner wall face and an outer wall face of the container that encompasses the surrounding of the interior space; and at least one of the air flow paths is formed along an inner wall face of the explosion proof container; characterised in that, the explosion proof container has a two-layer structure and is integrated with the air flow paths (Ls1, Ls2, Lo1, Lo2) as the two-layer structure, and the inner wall face of the explosion proof container whereon the at least one air flow path is formed is arc-shaped or a shape that uses many curved faces of free curve shapes. an electric circuit module adapted to process electric signals; an electropneumatic converter adapted to convert electric signals that have been processed by the electric circuit module into pneumatic signals; an explosion proof container for containing, in an interior space, the electric circuit module and the electropneumatic converter; and a pneumatic amplifier, disposed outside of the explosion proof container, adapted to amplify the pneumatic signal converted by the electropneumatic converter, whereby, the explosion proof container is formed with air flow paths (Ls1, Ls2, Lo1, Lo2) for the air that is fed into the pneumatic amplifier and the air that is fed out of the pneumatic amplifier, in a thick portion between an inner wall face and an outer wall face of the container that encompasses the surrounding of the interior space; and at least one of the air flow paths is formed along an inner wall face of the explosion proof container; characterised in that, the explosion proof container has a two-layer structure and is integrated with the air flow paths (Ls1, Ls2, Lo1, Lo2) as the two-layer structure, and the inner wall face of the explosion proof container whereon the at least one air flow path is formed is arc-shaped or a shape that uses many curved faces of free curve shapes.
An OCT system, comprising an OCT scan module for retinal scanning, the OCT scan module having an OCT scan beam and an ocular lens, said system further comprising an anterior segment scan module which is attachable externally to the OCT scan module for retinal scanning so as to switch between retinal scanning function and anterior segment scanning function of the OCT system; the anterior segment scan module comprising: at least one anterior segment scan lens configured to focus the OCT scan beam in the anterior segment of an eye under investigation; characterized in that the anterior segment scan module further comprises a fixation target configured to maintain the viewing direction of the eye during anterior segment scanning. at least one anterior segment scan lens configured to focus the OCT scan beam in the anterior segment of an eye under investigation; characterized in that the anterior segment scan module further comprises a fixation target configured to maintain the viewing direction of the eye during anterior segment scanning.
An occluder for closing a passage in a circulatory system, wherein the occluder has an expandable fixation unit for fixing the occluder on the passage, wherein the occluder can be transferred in the passage from a compact form of appearance to an expanded form of appearance, and wherein the occluder has a distal and a proximal axial part (2, 3), in which parts the fixation unit is held pivotably, wherein the fixation unit has distal fixation arms and proximal fixation arms, wherein the distal fixation arms are held pivotably in the distal axial part and the proximal fixation arms are held pivotably in the proximal axial part, and wherein the distal and the proximal fixation arms have free ends, which are connected to one another via connecting members (43, 44) that are movable relative to the fixation arms, wherein in each case a distal fixation arm is connected to a proximal fixation arm, characterized in that each of these fixation arms is U-shaped with two branches and a bridge joining these branches, wherein the two branches have free ends, which are held pivotably in the proximal or distal axial part (2, 3), and wherein the bridge forms said free end of the fixation arm.
Combination vaccine for the protection of susceptible ruminants against BVDV, characterised in that the vaccine comprises a first BVDV belonging to a first Type and carrying a BVDV E2 gene of said first Type, a second BVDV belonging to a first Type, wherein the BVDV E2 gene belonging to said first Type is replaced by the BVDV E2 gene belonging to a second Type, and a pharmaceutically acceptable carrier, and wherein said first BVDV and said second BVDV have the same backbone.
A process for the conversion of a solid material containing hemicellulose, cellulose and lignin, which process comprises the following steps: (i) hydrolyzing, at a temperature equal to or less than 40°C, preferably equal to or less than 30°C, at least part of the hemicellulose of the solid material by contacting the solid material with a first aqueous hydrochloric acid solution, which first aqueous hydrochloric acid solution has a hydrochloric acid concentration in the range from equal to or more than 15.0 wt. % to less than 40.0 wt. %, based on the weight amount of water and hydrochloric acid in such first aqueous hydrochloric acid solution, yielding a remaining solid material and an aqueous first hydrolysate product solution; (ii) displacing aqueous solution from the remaining solid material with a non-aqueous displacement fluid; (iii) hydrolyzing, at a temperature equal to or less than 40°C, preferably equal to or less than 30°C, at least part of the cellulose of the remaining solid material by replacing the non-aqueous displacement fluid with a second aqueous hydrochloric acid solution, which second aqueous hydrochloric acid solution has a hydrochloric acid concentration in the range from equal to or more than 40.0 wt. % to equal to or less than 51.0 wt. %, based on the weight amount of water and hydrochloric acid in such second aqueous hydrochloric acid solution, yielding a residue and an aqueous second hydrolysate product solution. (i) hydrolyzing, at a temperature equal to or less than 40°C, preferably equal to or less than 30°C, at least part of the hemicellulose of the solid material by contacting the solid material with a first aqueous hydrochloric acid solution, which first aqueous hydrochloric acid solution has a hydrochloric acid concentration in the range from equal to or more than 15.0 wt. % to less than 40.0 wt. %, based on the weight amount of water and hydrochloric acid in such first aqueous hydrochloric acid solution, yielding a remaining solid material and an aqueous first hydrolysate product solution; (ii) displacing aqueous solution from the remaining solid material with a non-aqueous displacement fluid; (iii) hydrolyzing, at a temperature equal to or less than 40°C, preferably equal to or less than 30°C, at least part of the cellulose of the remaining solid material by replacing the non-aqueous displacement fluid with a second aqueous hydrochloric acid solution, which second aqueous hydrochloric acid solution has a hydrochloric acid concentration in the range from equal to or more than 40.0 wt. % to equal to or less than 51.0 wt. %, based on the weight amount of water and hydrochloric acid in such second aqueous hydrochloric acid solution, yielding a residue and an aqueous second hydrolysate product solution.
A user equipment, UE, comprising: a processor configured to receive allocation of a periodical dedicated resource for periodically transmitting scheduling requests, wherein the processor is configured to use the periodical dedicated resource to schedule transmission of a first series of scheduling requests, offset in time with respect to a second series of sounding reference symbols; wherein a first period of one of the first or second series is not a whole multiple of a second period of the other one of the first or second series; and wherein the processor is further configured to receive a time offset sized to avoid the transmissions of the first series and the second series, that are periodically transmitted by the UE, occurring in a same sub-frame; and to apply the offset to either the first series or second series. a processor configured to receive allocation of a periodical dedicated resource for periodically transmitting scheduling requests, wherein the processor is configured to use the periodical dedicated resource to schedule transmission of a first series of scheduling requests, offset in time with respect to a second series of sounding reference symbols; wherein a first period of one of the first or second series is not a whole multiple of a second period of the other one of the first or second series; and wherein the processor is further configured to receive a time offset sized to avoid the transmissions of the first series and the second series, that are periodically transmitted by the UE, occurring in a same sub-frame; and to apply the offset to either the first series or second series.
A transmission device comprising: a distribution unit configured to distribute packet data configuring a packet that stores data to be transmitted into a plurality of lanes; a plurality of signal processing units configured to transmit data streams having same data structures including the distributed packet data to a reception device by using the plurality of lanes in parallel; characterized in further comprising: a control unit configured to, in a case where the data stream is transmitted in a predetermined mode, when a parameter that defines the processing of a physical layer is changed, switch transmission of the data stream in the mode defined by the changed parameter is started after training processing for performing data synchronization and correction of a difference between data timings of the lanes by the reception device is executed or when a parameter that defines the processing of a link layer is changed, switch transmission of the data stream in the mode defined by the changed parameter is started without executing the training processing according to a type of the parameter to be changed. a distribution unit configured to distribute packet data configuring a packet that stores data to be transmitted into a plurality of lanes; a plurality of signal processing units configured to transmit data streams having same data structures including the distributed packet data to a reception device by using the plurality of lanes in parallel; characterized in further comprising: a control unit configured to, in a case where the data stream is transmitted in a predetermined mode, when a parameter that defines the processing of a physical layer is changed, switch transmission of the data stream in the mode defined by the changed parameter is started after training processing for performing data synchronization and correction of a difference between data timings of the lanes by the reception device is executed or when a parameter that defines the processing of a link layer is changed, switch transmission of the data stream in the mode defined by the changed parameter is started without executing the training processing according to a type of the parameter to be changed.