mhurhangee/patent-ind-claim-en huggingface dataset:
An intravenous lead comprising: a lumen extending from a proximal end to a distal end, wherein a lead delivery device can be disposed into the lumen; and an elongated lead body comprising a length between a proximal end and a shaped distal end , the lead body defining a longitudinal axis extending between the proximal end and the shaped distal end, the lead body having an outer circumference and provided with a set of electrodes (104a-d) circumferentially spaced apart, each electrode having an electrically active portion and an insulated portion at an outer circumference, the lead body further configured to move through a tubular body of a guide catheter while having a first shape that substantially retains its shaped non-linear distal end while the lead is disposed within the tubular body, and the shaped distal end expanding to a second shape or original shape upon exiting the tubular body of the guide catheter such that the electrically active portion of each electrode faces myocardial tissue while the insulated portion of each electrode faces a phrenic nerve of a patient, characterized in that , if the lead is rotated such that the insulated portions face myocardial tissue, the mechanical structure and the stiffness of the shaped distal end of the lead in conjunction with the curved shaped heart are configured to cause a rotational force to rotate back to the configuration in which the electrically active portions of the lead face myocardial tissue . a lumen extending from a proximal end to a distal end, wherein a lead delivery device can be disposed into the lumen; and an elongated lead body comprising a length between a proximal end and a shaped distal end , the lead body defining a longitudinal axis extending between the proximal end and the shaped distal end, the lead body having an outer circumference and provided with a set of electrodes (104a-d) circumferentially spaced apart, each electrode having an electrically active portion and an insulated portion at an outer circumference, the lead body further configured to move through a tubular body of a guide catheter while having a first shape that substantially retains its shaped non-linear distal end while the lead is disposed within the tubular body, and the shaped distal end expanding to a second shape or original shape upon exiting the tubular body of the guide catheter such that the electrically active portion of each electrode faces myocardial tissue while the insulated portion of each electrode faces a phrenic nerve of a patient, characterized in that , if the lead is rotated such that the insulated portions face myocardial tissue, the mechanical structure and the stiffness of the shaped distal end of the lead in conjunction with the curved shaped heart are configured to cause a rotational force to rotate back to the configuration in which the electrically active portions of the lead face myocardial tissue .
An acoustic echo canceller comprising: an adaptive filter comprising: a linear filter having a transfer function controlled by a set of variable filter coefficients and configured to cancel an estimate of echo in a microphone signal to provide an output signal, and a coefficient calculator configured to update the set of variable filter coefficients based on a variable adaptation rate; and a double-talk detector configured to calculate changes in the energy of the variable filter coefficients by computing an energy difference between current and immediate past sets of filter coefficients, wherein the acoustic echo canceller is configured to adjust the variable adaptation rate based on the energy of the variable filter coefficients, wherein the double-talk detector is configured to determine a trend of the energy of the variable filter coefficients based on signs of the energy difference and to compare a magnitude of the trend to a threshold value, and wherein the acoustic echo canceller is configured to adjust the adaptation rate based on the comparison. a linear filter having a transfer function controlled by a set of variable filter coefficients and configured to cancel an estimate of echo in a microphone signal to provide an output signal, and a coefficient calculator configured to update the set of variable filter coefficients based on a variable adaptation rate; and a double-talk detector configured to calculate changes in the energy of the variable filter coefficients by computing an energy difference between current and immediate past sets of filter coefficients, wherein the acoustic echo canceller is configured to adjust the variable adaptation rate based on the energy of the variable filter coefficients, wherein the double-talk detector is configured to determine a trend of the energy of the variable filter coefficients based on signs of the energy difference and to compare a magnitude of the trend to a threshold value, and wherein the acoustic echo canceller is configured to adjust the adaptation rate based on the comparison.
Vehicle on-board unit for a road toll system, the vehicle on-board unit comprising a processor , configured to determine the position of the on-board unit in regular intervals and to provide data representing the determined positions, the data including at least one of a latitude, a longitude and a timestamp representing the time at which the correspondent position has been determined; and a communication module , configured to receive the data representing the determined positions, and generate at least one message , each message including the data of at least two successive positions, whereby the message includes a data header and payload, the payload including the position data, wherein the communication module is further configured to generate the at least one message to include a first timestamp for a first position in each message and to omit timestamps for at least one successive position of the same message . a processor , configured to determine the position of the on-board unit in regular intervals and to provide data representing the determined positions, the data including at least one of a latitude, a longitude and a timestamp representing the time at which the correspondent position has been determined; and a communication module , configured to receive the data representing the determined positions, and generate at least one message , each message including the data of at least two successive positions, whereby the message includes a data header and payload, the payload including the position data, wherein the communication module is further configured to generate the at least one message to include a first timestamp for a first position in each message and to omit timestamps for at least one successive position of the same message .
A hinge type relay comprising: an electromagnet ; a movable contact part having a movable contact , configured to operate corresponding to an activation of the electromagnet; a fixed contact part having a fixed contact positioned opposed to the movable contact; and a case configured to contain the electromagnet and the movable contact part, wherein the electromagnet and the movable contact part are insertable into the case along the contact/separation direction; and whereby the case has a structure comprising a back side of the case opposite to an opening, characterised in that the fixed contact part is separate from the movable contact part and is insertable into the opening to constitute a cover of the case, whereby the structure is openable in a contact/separation direction between the fixed contact and the movable contact. an electromagnet ; a movable contact part having a movable contact , configured to operate corresponding to an activation of the electromagnet; a fixed contact part having a fixed contact positioned opposed to the movable contact; and a case configured to contain the electromagnet and the movable contact part, wherein the electromagnet and the movable contact part are insertable into the case along the contact/separation direction; and whereby the case has a structure comprising a back side of the case opposite to an opening, characterised in that the fixed contact part is separate from the movable contact part and is insertable into the opening to constitute a cover of the case, whereby the structure is openable in a contact/separation direction between the fixed contact and the movable contact.
A method of manufacturing nitrile rubber latex gloves during which (a) the glove formers are dipped into a coagulant solution, to which has been added at least one of chlorohexidene, photo-catalytic titanium dioxide, triclosan, benzalkonium chloride, silver salts and nanoparticles, and poly(hexamethylene biguanide) (PHMB); and during which (b) the coated glove formers are then dipped into a nitrile rubber latex dispersion containing triclosan that is not in a paste form, in which at least one of sodium dodecyl benzene sulphonate and alkyl alcohol ethoxylate are used in order to disperse the triclosan.
A chair comprising: a leg provided to stand from a floor surface; a seat provided above the leg ; and a support mechanism interposed between the leg and the seat, wherein the support mechanism including a wavy plate provided at one of a supported part directly or indirectly supported by the leg and a support part directly or indirectly supporting the seat, , provided to horizontally extend from a vertical wall of the support part or the supported part and having a mound-shaped surface convexly curved upward or downward; and a follower provided at the other of the support part and the supported part and configured to allow a relative movement to the mound-shaped surface while contacting the mound-shaped surface, and the wavy plate is associated with the follower such that a movement end inclines downward when the seat moves from a neutral position in accordance with the relative movement between the mound-shaped surface and the follower . a leg provided to stand from a floor surface; a seat provided above the leg ; and a support mechanism interposed between the leg and the seat, wherein the support mechanism including a wavy plate provided at one of a supported part directly or indirectly supported by the leg and a support part directly or indirectly supporting the seat, , provided to horizontally extend from a vertical wall of the support part or the supported part and having a mound-shaped surface convexly curved upward or downward; and a follower provided at the other of the support part and the supported part and configured to allow a relative movement to the mound-shaped surface while contacting the mound-shaped surface, and the wavy plate is associated with the follower such that a movement end inclines downward when the seat moves from a neutral position in accordance with the relative movement between the mound-shaped surface and the follower .
A bundled banknote conveying device, comprising: a clamping mechanism, a horizontal transporting mechanism, and a lifting mechanism, wherein the clamping mechanism clamps bundled banknotes from a first setting position and conveys the same to a second setting position, the horizontal transporting mechanism horizontally conveys the bundled banknotes from the second setting position to a third setting position, the lifting mechanism lifts the bundled banknotes from the third setting position to a fourth setting position, and the clamping mechanism comprises a driving motor , a transmission device, a guide rod , an upper jaw and a lower jaw , wherein the guide rod is fixedly provided, and the upper jaw and the lower jaw pass through the guide rod and the upper jaw or the lower jaw are capable of freely " moving in a vertical direction within a length range of the guide rod ; and the transmission device is connected between the driving motor and the upper jaw or the lower jaw , and the upper jaw or the lower jaw are driven to clamp banknotes by controlling forward rotation and reverse rotation of the driving motor , and the transmission device comprises a driving gear , a driven gear and a transmission part , wherein the driving gear is mounted on a motor shaft of the driving motor , the driving gear and the driven gear are in mesh connection, and the transmission part is connected between the driven gear and the upper jaw or the lower jaw , wherein the horizontal transporting mechanism comprises a horizontal driving motor , a connecting part , a guide groove , a guide shaft and a guide wheel, wherein the guide wheel is mounted at one side of the clamping mechanism, and the guide wheel is provided in the guide groove , the guide shaft passes through the other side of the clamping mechanism, and the connecting part is connected between the clamping mechanism and the horizontal driving motor . the transmission device is connected between the driving motor and the upper jaw or the lower jaw , and the upper jaw or the lower jaw are driven to clamp banknotes by controlling forward rotation and reverse rotation of the driving motor , and the transmission device comprises a driving gear , a driven gear and a transmission part , wherein the driving gear is mounted on a motor shaft of the driving motor , the driving gear and the driven gear are in mesh connection, and the transmission part is connected between the driven gear and the upper jaw or the lower jaw , wherein the horizontal transporting mechanism comprises a horizontal driving motor , a connecting part , a guide groove , a guide shaft and a guide wheel, wherein the guide wheel is mounted at one side of the clamping mechanism, and the guide wheel is provided in the guide groove , the guide shaft passes through the other side of the clamping mechanism, and the connecting part is connected between the clamping mechanism and the horizontal driving motor .
An imaging device comprising: a plurality of light sources each configured to emit light to a different area of a subject; an imaging circuitry configured to obtain a captured image by capturing the subject; at least one processor configured to: control the plurality of light sources to sequentially emit light in a predetermined light-emission order, control the imaging circuitry to capture an image of the subject each time a light source of the plurality of light sources emits light, obtain, based on a new captured image, an image area of the subject to which the light source emits light, identify whether motion of a predetermined detection target exists in the obtained image area of the captured image, when the motion of the predetermined detection target does not exist in the obtained image area of the captured image, control the plurality of light sources to continue to emit light in the predetermined light emission order, and when the motion of the predetermined detection target exists in the obtained image area of the captured image, control the plurality of light sources so that a light emission frequency of the light source (11a, 11b, 11c, 11 d) corresponding to the image area identified to include the motion of the detection target from among the plurality of light sources is increased. a plurality of light sources each configured to emit light to a different area of a subject; an imaging circuitry configured to obtain a captured image by capturing the subject; at least one processor configured to: control the plurality of light sources to sequentially emit light in a predetermined light-emission order, control the imaging circuitry to capture an image of the subject each time a light source of the plurality of light sources emits light, obtain, based on a new captured image, an image area of the subject to which the light source emits light, identify whether motion of a predetermined detection target exists in the obtained image area of the captured image, control the plurality of light sources to sequentially emit light in a predetermined light-emission order, control the imaging circuitry to capture an image of the subject each time a light source of the plurality of light sources emits light, obtain, based on a new captured image, an image area of the subject to which the light source emits light, identify whether motion of a predetermined detection target exists in the obtained image area of the captured image, when the motion of the predetermined detection target does not exist in the obtained image area of the captured image, control the plurality of light sources to continue to emit light in the predetermined light emission order, and when the motion of the predetermined detection target exists in the obtained image area of the captured image, control the plurality of light sources so that a light emission frequency of the light source (11a, 11b, 11c, 11 d) corresponding to the image area identified to include the motion of the detection target from among the plurality of light sources is increased.
A method for calibrating a homodyne receiver in a signal distribution network for time division duplex, the method being performed by a baseband calibration module , the method comprising: acquiring (S102) a transmission signal being input to a homodyne transmitter of the signal distribution network; acquiring (S104), from a heterodyne transmitter observation receiver of the signal distribution network, a first received version of said transmission signal; acquiring (S106), from a homodyne receiver of the signal distribution network, a second received version of said transmission signal; and calibrating (S108) the homodyne receiver using a comparison of said first received version of said transmission signal and said second received version of said transmission signal, using said first received version of said transmission signal as a reference signal, and using said transmission signal as a calibration signal, wherein said calibrating comprises: determining (Sio8c) correction filter coefficients; and determining (Sio8b) a difference between said first received version of said transmission signal and said second received version of said transmission signal; and wherein the correction filter coefficients are determined based on said difference and said transmission signal, said correction filter coefficients defining calibration of the homodyne receiver. acquiring (S102) a transmission signal being input to a homodyne transmitter of the signal distribution network; acquiring (S104), from a heterodyne transmitter observation receiver of the signal distribution network, a first received version of said transmission signal; acquiring (S106), from a homodyne receiver of the signal distribution network, a second received version of said transmission signal; and calibrating (S108) the homodyne receiver using a comparison of said first received version of said transmission signal and said second received version of said transmission signal, using said first received version of said transmission signal as a reference signal, and using said transmission signal as a calibration signal, wherein said calibrating comprises: determining (Sio8c) correction filter coefficients; and determining (Sio8b) a difference between said first received version of said transmission signal and said second received version of said transmission signal; and determining (Sio8c) correction filter coefficients; and determining (Sio8b) a difference between said first received version of said transmission signal and said second received version of said transmission signal; and wherein the correction filter coefficients are determined based on said difference and said transmission signal, said correction filter coefficients defining calibration of the homodyne receiver.
A port mode adaptation method, comprising: determining , by a network device, a status of a port on the network device; and setting , by the network device, a mode of the port to an Ethernet interface mode if the status of the port satisfies a first condition, wherein the first condition comprises: the mode of the port is a Flexible Ethernet, FlexE, interface mode, and there is no link at a Flexible Ethernet shim, FlexE shim, of the port. determining , by a network device, a status of a port on the network device; and setting , by the network device, a mode of the port to an Ethernet interface mode if the status of the port satisfies a first condition, wherein the first condition comprises: the mode of the port is a Flexible Ethernet, FlexE, interface mode, and there is no link at a Flexible Ethernet shim, FlexE shim, of the port.
A photo bioreactor for pasteurization of liquid food products, e.g. milk, the photo bioreactor comprising: - a first cassette mounting frame; - one or more spiral-shaped tubes extending from an inlet end to an outlet end creating a fluidic pathway; - at least two cassettes extending from a first end to a second end; and - one or more filters; wherein the cassette mounting frame comprises cassette receiving openings into which each of the cassettes are removable mounted, wherein each cassette comprises one or more light sources illuminating the one or more spiral-shaped tubes, wherein the one or more light sources emit light in a wavelength range between 180-300 nm, wherein, the one or more spiral-shaped tubes are positioned between two of the at least two cassettes, wherein the one or more filters are positioned between the one or more light sources and the one or more spiral-shaped tubes, and wherein the one or more filters prevent light above a wavelength of 300 nm from reaching the one or more spiral-shaped tubes. - a first cassette mounting frame; - one or more spiral-shaped tubes extending from an inlet end to an outlet end creating a fluidic pathway; - at least two cassettes extending from a first end to a second end; and - one or more filters; wherein the cassette mounting frame comprises cassette receiving openings into which each of the cassettes are removable mounted, wherein each cassette comprises one or more light sources illuminating the one or more spiral-shaped tubes, wherein the one or more light sources emit light in a wavelength range between 180-300 nm, wherein, the one or more spiral-shaped tubes are positioned between two of the at least two cassettes, wherein the one or more filters are positioned between the one or more light sources and the one or more spiral-shaped tubes, and wherein the one or more filters prevent light above a wavelength of 300 nm from reaching the one or more spiral-shaped tubes.
A drawer pull-out guide , comprising: - a first guide rail and at least one second guide rail displaceably supported relative to one another in a longitudinal direction (L) of the guide rails between a closed position and an open position, - at least one guide body supported between the guide rails , the guide rails being guidable in a lateral direction relative to one another in a mounted position of the drawer pull-out guide by the at least one guide body , - wherein at least one of the guide rails includes at least one protrusion bearing against the at least one guide body in the open position of the guide rails , so that at least in that region, in which the at least one guide body and the at least one protrusion bear against each other, the guide rails are arranged without clearance relative to one another in the lateral direction, characterized in that the at least one guide body is configured so as to be rotationally symmetrical and is rotatably mounted about an axis extending vertically in the mounted position. - a first guide rail and at least one second guide rail displaceably supported relative to one another in a longitudinal direction (L) of the guide rails between a closed position and an open position, - at least one guide body supported between the guide rails , the guide rails being guidable in a lateral direction relative to one another in a mounted position of the drawer pull-out guide by the at least one guide body , - wherein at least one of the guide rails includes at least one protrusion bearing against the at least one guide body in the open position of the guide rails , so that at least in that region, in which the at least one guide body and the at least one protrusion bear against each other, the guide rails are arranged without clearance relative to one another in the lateral direction,