mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasound diagnostic apparatus comprising: an ultrasound probe ; an image acquisition unit that transmits an ultrasound beam from the ultrasound probe to a subject to acquire an ultrasound image (U); a site recognition unit that performs image analysis on the ultrasound image (U) acquired by the image acquisition unit to recognize an imaged site of the subject; a peripheral site memory that stores a plurality of peripheral sites effective to detect a target site and a determined detection order in which the plurality of peripheral sites are detected; and an operation guide unit that, during detection of the target site, guides a user to operate the ultrasound probe so as to sequentially detect the plurality of peripheral sites stored in the peripheral site memory in accordance with the determined detection order and guides the user to operate the ultrasound probe so as to detect the target site on the basis of a recognition result obtained by the site recognition unit . an ultrasound probe ; an image acquisition unit that transmits an ultrasound beam from the ultrasound probe to a subject to acquire an ultrasound image (U); a site recognition unit that performs image analysis on the ultrasound image (U) acquired by the image acquisition unit to recognize an imaged site of the subject; a peripheral site memory that stores a plurality of peripheral sites effective to detect a target site and a determined detection order in which the plurality of peripheral sites are detected; and an operation guide unit that, during detection of the target site, guides a user to operate the ultrasound probe so as to sequentially detect the plurality of peripheral sites stored in the peripheral site memory in accordance with the determined detection order and guides the user to operate the ultrasound probe so as to detect the target site on the basis of a recognition result obtained by the site recognition unit .
A crimp connection terminal formed by punching and bending one conductive metal plate to caulk and fix an electric wire, wherein a connection portion connected to a connection terminal of a counterpart connecter is disposed at a front side, a conductor crimping portion to crimp and fix a conductor portion of the electric wire is disposed at a rear side, the conductor crimping portion has a pair of crimping pieces raised in a U-shape from a bottom portion , each of the crimping pieces of the conductor crimping portion has a lower layer plate and an upper layer plate formed by folding back from an upper end of the lower layer plate and stacking on the lower layer plate , wherein a void is formed at the folded-back portion between the lower layer plate and the upper layer plate , characterized in that the void has a cross section corresponding to a water droplet shape, a balloon shape, a circular shape, or an elliptical shape, wherein when a strong crimping force is applied in a crimping process of a conductor portion of an electric wire, upper ends of the crimping pieces are closed and the void is reduced to be flat so that the conductor portion is firmly tightened and fixed without a gap. wherein a connection portion connected to a connection terminal of a counterpart connecter is disposed at a front side, a conductor crimping portion to crimp and fix a conductor portion of the electric wire is disposed at a rear side, the conductor crimping portion has a pair of crimping pieces raised in a U-shape from a bottom portion , each of the crimping pieces of the conductor crimping portion has a lower layer plate and an upper layer plate formed by folding back from an upper end of the lower layer plate and stacking on the lower layer plate , wherein a void is formed at the folded-back portion between the lower layer plate and the upper layer plate , characterized in that the void has a cross section corresponding to a water droplet shape, a balloon shape, a circular shape, or an elliptical shape, wherein when a strong crimping force is applied in a crimping process of a conductor portion of an electric wire, upper ends of the crimping pieces are closed and the void is reduced to be flat so that the conductor portion is firmly tightened and fixed without a gap.
A method for integrating a laminate composite (110, 510 1 , 510 2 , 510 3 , 510 4 , 510 5 ) fitted between two wings of a laminate composite profile comprising steps of: I) obtaining a laminate preform of a fitting comprising a fibrous reinforcement impregnated with a thermosetting resin, the laminate preform of the fitting comprising two flanges intended to be inserted in contact between the two wings of the laminate composite profile and a rib extending between the two flanges and integral therewith; II) precuring the laminate preform of the fitting to obtain a partial polymerization of the laminate preform of the fitting; III) laying up of a profile preform of the laminate composite profile so that fibers impregnated with a thermosetting resin comprised in two of the wings of the laminate composite preform of the profile are laid up over the two flanges of the partially polymerized laminate preform of the fitting ; and IV) completely polymerizing an assembly comprising the laminate composite preform of the profile and the partially polymerized laminate preform of the fitting while maintaining into contact the flanges of the laminate preform of the fitting with the wings of the laminate composite preform of the profile ; characterized in that the laminate preform of the fitting comprises two half-preforms made by a layup of fibers pre-impregnated with the thermosetting resin, the half-preforms being assembled by precuring during step II) along a contact plane located in the rib . I) obtaining a laminate preform of a fitting comprising a fibrous reinforcement impregnated with a thermosetting resin, the laminate preform of the fitting comprising two flanges intended to be inserted in contact between the two wings of the laminate composite profile and a rib extending between the two flanges and integral therewith; II) precuring the laminate preform of the fitting to obtain a partial polymerization of the laminate preform of the fitting; III) laying up of a profile preform of the laminate composite profile so that fibers impregnated with a thermosetting resin comprised in two of the wings of the laminate composite preform of the profile are laid up over the two flanges of the partially polymerized laminate preform of the fitting ; and IV) completely polymerizing an assembly comprising the laminate composite preform of the profile and the partially polymerized laminate preform of the fitting while maintaining into contact the flanges of the laminate preform of the fitting with the wings of the laminate composite preform of the profile ;
Pre-expanded polypropylene resin particles comprising a polypropylene resin as a substrate resin, the resin particles having an average particle weight of 3 mg/particle or less, and the pre-expanded particles having a dimensional expansion coefficient of 1.5% or more determined with a thermomechanical analyzer at a constant compressive load of 0.1 g during heating from 30°C to 100°C at a temperature increase rate of 10°C/min.
A method of discharging a battery, characterized in that the method comprises: a monitoring step, monitoring a remaining capacity of the battery in each discharging process; a calculation step, calculating a cumulative remaining capacity and a capacity decay rate of the battery within a specified quantity of discharging times; and a deep discharge step, deeply discharging the battery in a next discharging process when the cumulative remaining capacity is greater than or equal to a first preset threshold or the capacity decay rate is greater than or equal to a second preset threshold, which is 50%, wherein the capacity decay rate is obtained through the following steps: monitoring a first discharge capacity of the battery in the m th discharging process, wherein m is an integer greater than 0; monitoring a second discharge capacity of the battery in the (m+N) th discharging process, wherein N is an integer greater than or equal to 1; and calculating the capacity decay rate k, wherein k = (first discharge capacity - second discharge capacity) / rated capacity × 100%. a monitoring step, monitoring a remaining capacity of the battery in each discharging process; a calculation step, calculating a cumulative remaining capacity and a capacity decay rate of the battery within a specified quantity of discharging times; and a deep discharge step, deeply discharging the battery in a next discharging process when the cumulative remaining capacity is greater than or equal to a first preset threshold or the capacity decay rate is greater than or equal to a second preset threshold, which is 50%, wherein the capacity decay rate is obtained through the following steps: monitoring a first discharge capacity of the battery in the m th discharging process, wherein m is an integer greater than 0; monitoring a second discharge capacity of the battery in the (m+N) th discharging process, wherein N is an integer greater than or equal to 1; and calculating the capacity decay rate k, wherein k = (first discharge capacity - second discharge capacity) / rated capacity × 100%. monitoring a first discharge capacity of the battery in the m th discharging process, wherein m is an integer greater than 0; monitoring a second discharge capacity of the battery in the (m+N) th discharging process, wherein N is an integer greater than or equal to 1; and calculating the capacity decay rate k, wherein k = (first discharge capacity - second discharge capacity) / rated capacity × 100%.
A host device configured to communicate with a stylus device , the host device comprising: a digitizer at the host device configured to receive a transmitted signal from the stylus device as a modulated scrambled stylus code signal including a scrambled stylus code frame , the scrambled stylus code frame having a plurality of data fields including at least one scrambled data field and at least one unscrambled data field, the at least one scrambled data field being scrambled using a pseudo-random sequence ; a demodulator at the host device coupled to the digitizer and configured to demodulate the modulated scrambled stylus code signal to output the scrambled stylus code frame ; a descrambler at the host device coupled to the demodulator and configured to descramble the at least one scrambled data field of the scrambled stylus code frame using the pseudo-random sequence to output at least one descrambled data field in a descrambled stylus code frame , the descrambled stylus code frame further including the at least one unscrambled data field; a synchronizer at the host device coupled to the descrambler and configured to synchronize the at least one descrambled data field and the at least one unscrambled data field of the descrambled stylus code frame with a supported code pattern; and a scrambling state manager configured to reset a scrambling state of the host device in synchronization with a scrambling state of the stylus device , responsive to detection of a stylus state change, wherein the scrambling state includes a unique pseudo-random sequence set. a digitizer at the host device configured to receive a transmitted signal from the stylus device as a modulated scrambled stylus code signal including a scrambled stylus code frame , the scrambled stylus code frame having a plurality of data fields including at least one scrambled data field and at least one unscrambled data field, the at least one scrambled data field being scrambled using a pseudo-random sequence ; a demodulator at the host device coupled to the digitizer and configured to demodulate the modulated scrambled stylus code signal to output the scrambled stylus code frame ; a descrambler at the host device coupled to the demodulator and configured to descramble the at least one scrambled data field of the scrambled stylus code frame using the pseudo-random sequence to output at least one descrambled data field in a descrambled stylus code frame , the descrambled stylus code frame further including the at least one unscrambled data field; a synchronizer at the host device coupled to the descrambler and configured to synchronize the at least one descrambled data field and the at least one unscrambled data field of the descrambled stylus code frame with a supported code pattern; and a scrambling state manager configured to reset a scrambling state of the host device in synchronization with a scrambling state of the stylus device , responsive to detection of a stylus state change, wherein the scrambling state includes a unique pseudo-random sequence set.
A Swimming cap that for its manufacture allows the use of diverse techniques and waterproof materials comprising: a. a main body comprising: - an upper portion consisting of a spherical cap for receiving long hair compactly collected or the top of voluminous hairdos; characterized in that, the main body comprises: - a middle portion consisting of a spherical zone composed of twelve pieces for receiving the bulk of the hair; and - a lower portion consisting of a concave surface of revolution whose lower part, when the cap is put on, contacts the user's head below the hairline and separates from it above that line, and where lodges the hair adjacent to the face, temples, and back of the neck; and the swimming cap comprises: b. an internal positioning-blocking unit comprising: - an annular band , made of elastic material, attached to a rim of the lower portion of the main body by only one of its edges; and - a leak-preventing strip , pleated and made of an absorbent material, that attaches by one of its ends to an inner surface of the annular band while by the other end protrudes above a loose edge of said band , and that by filling the spaces that may form between the inner face of the cap and the head because of the irregularities in the shape of the latter in the nape of the neck, it stops and absorbs any possible leaks in that region. a. a main body comprising: - an upper portion consisting of a spherical cap for receiving long hair compactly collected or the top of voluminous hairdos; characterized in that, the main body comprises: - a middle portion consisting of a spherical zone composed of twelve pieces for receiving the bulk of the hair; and - a lower portion consisting of a concave surface of revolution whose lower part, when the cap is put on, contacts the user's head below the hairline and separates from it above that line, and where lodges the hair adjacent to the face, temples, and back of the neck; and - an upper portion consisting of a spherical cap for receiving long hair compactly collected or the top of voluminous hairdos; - a middle portion consisting of a spherical zone composed of twelve pieces for receiving the bulk of the hair; and - a lower portion consisting of a concave surface of revolution whose lower part, when the cap is put on, contacts the user's head below the hairline and separates from it above that line, and where lodges the hair adjacent to the face, temples, and back of the neck; and - an annular band , made of elastic material, attached to a rim of the lower portion of the main body by only one of its edges; and - a leak-preventing strip , pleated and made of an absorbent material, that attaches by one of its ends to an inner surface of the annular band while by the other end protrudes above a loose edge of said band , and that by filling the spaces that may form between the inner face of the cap and the head because of the irregularities in the shape of the latter in the nape of the neck, it stops and absorbs any possible leaks in that region.
Method of semi-orthogonal transmission of a signal intended for a system of N sources (S 1 , S 2 , ...S N ), M relays (R 1 . R 2 ,...R M ), R j with j=1 to M, M ≥ 2, N ≥ 2, and a single receiver (D) according to which the simultaneous transmission on one and the same spectral resource by the relays is successive and non-simultaneous with a simultaneous transmission on one and the same spectral resource by the sources, the method comprising per relay R j : - a step of iterative joint detection/decoding of messages (u 1 , u 2 , ..., u N ) emitted respectively by the sources to obtain decoded messages, - a step of detecting errors in the decoded messages (u 1 , u 2 , ..., u N ), - a step of interleaving just the errorless messages detected followed by a step of algebraic network coding of vector a j = [a 1,j a 2 , j ... a N,j ] T consisting of a linear combination in a finite field of order strictly greater than two of the interleaved messages to obtain a coded message, the linear combinations being pairwise independent between the relays of the system, - a step of shaping comprising a channel coding to generate a signal representative of the network coded message. - a step of iterative joint detection/decoding of messages (u 1 , u 2 , ..., u N ) emitted respectively by the sources to obtain decoded messages, - a step of detecting errors in the decoded messages (u 1 , u 2 , ..., u N ), - a step of interleaving just the errorless messages detected followed by a step of algebraic network coding of vector a j = [a 1,j a 2 , j ... a N,j ] T consisting of a linear combination in a finite field of order strictly greater than two of the interleaved messages to obtain a coded message, the linear combinations being pairwise independent between the relays of the system, - a step of shaping comprising a channel coding to generate a signal representative of the network coded message.
A signal processing method for use in a passive fiber hub in a home network, including: receiving an optical signal transmitted from a first access point device in a home network with optical fibers (S102); and forwarding the received optical signal to two or more second access point devices in the home network with optical fibers (S104), wherein the number of ports of the passive fiber hub is greater than or equal to a predetermined threshold, each of the ports being connected to a corresponding port optical splitter, respectively, wherein the number of port optical splitters within the passive fiber hub and the number of the ports is in a predetermined ratio, and the ports transmit data with each other via the port optical splitters connected with the ports and one or more non-port optical splitters in the passive fiber hub, wherein the non-port optical splitters are those optical splitters in the passive fiber hub other than the port optical splitters; wherein, when an internal structure of the passive fiber hub includes a combination of multiple Y-type splitters, a trunk side of each Y-type splitter is used as a passive fiber hub external port, Y-type branches are connected with each other within the passive fiber hub; and when there are more than three ports in the passive fiber hub, for each additional port, three Y-type splitters are added. receiving an optical signal transmitted from a first access point device in a home network with optical fibers (S102); and forwarding the received optical signal to two or more second access point devices in the home network with optical fibers (S104), wherein the number of ports of the passive fiber hub is greater than or equal to a predetermined threshold, each of the ports being connected to a corresponding port optical splitter, respectively, wherein the number of port optical splitters within the passive fiber hub and the number of the ports is in a predetermined ratio, and the ports transmit data with each other via the port optical splitters connected with the ports and one or more non-port optical splitters in the passive fiber hub, wherein the non-port optical splitters are those optical splitters in the passive fiber hub other than the port optical splitters; wherein, when an internal structure of the passive fiber hub includes a combination of multiple Y-type splitters, a trunk side of each Y-type splitter is used as a passive fiber hub external port, Y-type branches are connected with each other within the passive fiber hub; and when there are more than three ports in the passive fiber hub, for each additional port, three Y-type splitters are added.
A drug delivery device which is wholly deployable within the bladder of a human patient and well tolerated by the patient, comprising: an elastic body housing a solid or semi-solid drug formulation, wherein the device is deformable between a deployment shape for passage of the device through the urethra and a retention shape for preventing voiding of the device through the urethra, characterized in that the retention shape has a maximum dimension in any dimension of 6 cm or less when in an uncompressed state and wherein the device exerts a maximum acting force less than 1 N when the device is compressed from the retention shape to a shape having a maximum dimension in any dimension of 3 cm. an elastic body housing a solid or semi-solid drug formulation, wherein the device is deformable between a deployment shape for passage of the device through the urethra and a retention shape for preventing voiding of the device through the urethra, characterized in that the retention shape has a maximum dimension in any dimension of 6 cm or less when in an uncompressed state and wherein the device exerts a maximum acting force less than 1 N when the device is compressed from the retention shape to a shape having a maximum dimension in any dimension of 3 cm.
A method of preparing a metal oxide-silica composite aerogel, the method comprising: 1) a step of adding an acid catalyst to a first water glass solution to prepare an acidic water glass solution, wherein the concentration of the first water glass solution is 0.01 M to 2.0 M, and wherein the pH of the acidic water glass solution is 0.1 to 2.9; 2) a step of adding a metal ion solution to the acidic water glass solution to prepare a precursor solution, wherein the concentration of the metal ion solution is 0.01 M to 2.0 M; and 3) a step of adding a second water glass solution to the precursor solution and performing a gelation reaction, wherein the concentration of the second water glass solution is 0.5 M to 6.0 M, wherein a reaction temperature in step 3 is 10 to 100 °C, and wherein the second water glass solution is added such that the pH of the precursor solution becomes 3 to 10, wherein after step 3, a step of washing and drying is further comprised. 1) a step of adding an acid catalyst to a first water glass solution to prepare an acidic water glass solution, wherein the concentration of the first water glass solution is 0.01 M to 2.0 M, and wherein the pH of the acidic water glass solution is 0.1 to 2.9; 2) a step of adding a metal ion solution to the acidic water glass solution to prepare a precursor solution, wherein the concentration of the metal ion solution is 0.01 M to 2.0 M; and 3) a step of adding a second water glass solution to the precursor solution and performing a gelation reaction, wherein the concentration of the second water glass solution is 0.5 M to 6.0 M, wherein a reaction temperature in step 3 is 10 to 100 °C, and wherein the second water glass solution is added such that the pH of the precursor solution becomes 3 to 10,