mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound diagnosis device, comprising: a transmitter that includes a waveform generator and an amplifier and generates a transmit signal; an ultrasound probe that converts the transmit signal generated from the transmitter into an acoustic signal to transmit an ultrasound transmit pulse having a center frequency f pc and a fractional bandwidth B P to a subject and receive a reflected echo from the subject; a band-pass means that extracts a signal of a sensitivity frequency band of frequency components constituting the transmit pulse from the received reflected echo; and a receiver that performs a signal processing of an output signal from the band-pass means, wherein the transmitter is configured to generate the transmit signal so as to make a lower limit frequency of sum frequency components generated in the subject by the nonlinear interaction of acoustic waves of frequency components that form the transmit pulse and an upper limit frequency of the band-pass means equal, and so as to make an upper limit frequency of difference-frequency components generated in the subject by the nonlinear interaction of acoustic waves of frequency components that form the transmit pulse and a lower limit frequency of the band-pass means equal; and the receiver is configured to receive a first reflected echo R1 obtained by a first transmit pulse P1 and a second reflected echo R2 obtained by a second transmit pulse P2 transmitted on a same scanning line as the first transmit pulse P1 and to perform signal processing for suppressing a linear tissue echo. a transmitter that includes a waveform generator and an amplifier and generates a transmit signal; an ultrasound probe that converts the transmit signal generated from the transmitter into an acoustic signal to transmit an ultrasound transmit pulse having a center frequency f pc and a fractional bandwidth B P to a subject and receive a reflected echo from the subject; a band-pass means that extracts a signal of a sensitivity frequency band of frequency components constituting the transmit pulse from the received reflected echo; and a receiver that performs a signal processing of an output signal from the band-pass means, wherein the transmitter is configured to generate the transmit signal so as to make a lower limit frequency of sum frequency components generated in the subject by the nonlinear interaction of acoustic waves of frequency components that form the transmit pulse and an upper limit frequency of the band-pass means equal, and so as to make an upper limit frequency of difference-frequency components generated in the subject by the nonlinear interaction of acoustic waves of frequency components that form the transmit pulse and a lower limit frequency of the band-pass means equal; and the receiver is configured to receive a first reflected echo R1 obtained by a first transmit pulse P1 and a second reflected echo R2 obtained by a second transmit pulse P2 transmitted on a same scanning line as the first transmit pulse P1 and to perform signal processing for suppressing a linear tissue echo.
A ceiling-mounted air conditioner comprising a unit body in a box shape mounted in a ceiling, and a heat exchanger and a blower unit that are mounted in the unit body, the unit body including: a support member (20A,20B), one surface of which is configured to be a partition plate (22A, 22B) for partitioning an inside of the unit body into an inlet region and an outlet region, the blower unit being integrated with the support member, and an aperture being provided in one side surface of the unit body, characterized in that the support member (20A,20B) is bent substantially at right angles, and the other surface of the support member (20A,20B) is configured to be a support plate (21A,21B) for supporting at least one fan (18A,18B,18C)and at least one motor (19A,19B) of the blower unit, in that the unit body further includes: a pair of rail members (24,25) installed in parallel at a predetermined distance therebetween on an inner surface of a top plate from one end to the other end of the top plate of the unit body; and in that the blower unit is slidingly inserted between the rail members from the aperture so as to be mounted into the unit body through the support member.
A method of identifying an image capture device based on an enhanced Sensor Noise Pattern extracted from an image under investigation, the method comprising the steps of: extracting an initial Sensor Pattern Noise, n, for the image under investigation; enhancing the initial SPN, n, to create an enhanced SPN, n e, by applying a correcting function, which is a function of the initial SPN such that n e = f(n), characterised in that: the correcting function f(n) is point-symmetric about the origin and it has a form such that it causes the magnitude of the enhanced SPN | n e |, to decrease monotonically with respect to the magnitude of n, or such that it causes the magnitude of the enhanced SPN | n e |, to grow monotonically if | n | ≤ α and to decrease monotonically with respect to | n | if | n | > α, wherein α is a predetermined value; determining a similarity measure between the enhanced SPN, n e, for said image with one or more previously calculated enhanced SPNs for one or more image capture devices; and identifying the image capture device with its reference enhanced SPN most similar or identical to enhanced SPN of the image under investigation based on the determined similarity measure. extracting an initial Sensor Pattern Noise, n, for the image under investigation; enhancing the initial SPN, n, to create an enhanced SPN, n e, by applying a correcting function, which is a function of the initial SPN such that n e = f(n), characterised in that: the correcting function f(n) is point-symmetric about the origin and it has a form such that it causes the magnitude of the enhanced SPN | n e |, to decrease monotonically with respect to the magnitude of n, or such that it causes the magnitude of the enhanced SPN | n e |, to grow monotonically if | n | ≤ α and to decrease monotonically with respect to | n | if | n | > α, wherein α is a predetermined value; determining a similarity measure between the enhanced SPN, n e, for said image with one or more previously calculated enhanced SPNs for one or more image capture devices; and the correcting function f(n) is point-symmetric about the origin and it has a form such that it causes the magnitude of the enhanced SPN | n e |, to decrease monotonically with respect to the magnitude of n, or such that it causes the magnitude of the enhanced SPN | n e |, to grow monotonically if | n | ≤ α and to decrease monotonically with respect to | n | if | n | > α, wherein α is a predetermined value; determining a similarity measure between the enhanced SPN, n e, for said image with one or more previously calculated enhanced SPNs for one or more image capture devices; and identifying the image capture device with its reference enhanced SPN most similar or identical to enhanced SPN of the image under investigation based on the determined similarity measure.
A wound dressing, comprising: a loaded wound dressing layer comprising: a porous matrix comprising a wound facing face and a reverse face, wherein the matrix comprises polymer foam; and a powder charge of antimicrobial release additive loaded within the matrix, wherein the powder charge decreases in amount with increasing distance from at least the wound facing face; wherein the powder charge further comprises a bulking agent and a flowing agent selected from a group consisting of stearate salt, clay, silica, charcoal, graphite and a combination thereof; and wherein the matrix comprises a plurality of cells and wherein the antimicrobial release additive is at least partially embedded within said cells. a porous matrix comprising a wound facing face and a reverse face, wherein the matrix comprises polymer foam; and a powder charge of antimicrobial release additive loaded within the matrix, wherein the powder charge decreases in amount with increasing distance from at least the wound facing face; wherein the powder charge further comprises a bulking agent and a flowing agent selected from a group consisting of stearate salt, clay, silica, charcoal, graphite and a combination thereof; and wherein the matrix comprises a plurality of cells and wherein the antimicrobial release additive is at least partially embedded within said cells.
A formulation comprising: nanoparticles comprising a polymer-associated pyrethroid compound with an average diameter of between 1 nm and 500 nm; wherein the polymer is a polyelectrolyte; a dispersant, that is not a sodium dodecylbenzene sulfonate wetting agent and/or dispersant, present at an amount of less than 5 weight percent; a sodium dodecylbenzene sulfonate wetting agent and/or dispersant, present at an amount of less than 5 weight percent; between 0.1 weight percent and 1 weight percent of an anti-foaming agent; between 0.01 weight percent and 0.1 weight percent a preservative; anc water; wherein the nanoparticles comprising a polymer-associated pyrethroid compound comprise between 1 weight % and 50 weight % of the formulation. nanoparticles comprising a polymer-associated pyrethroid compound with an average diameter of between 1 nm and 500 nm; wherein the polymer is a polyelectrolyte; a dispersant, that is not a sodium dodecylbenzene sulfonate wetting agent and/or dispersant, present at an amount of less than 5 weight percent; a sodium dodecylbenzene sulfonate wetting agent and/or dispersant, present at an amount of less than 5 weight percent; between 0.1 weight percent and 1 weight percent of an anti-foaming agent; between 0.01 weight percent and 0.1 weight percent a preservative; anc water;
A dual-headed paint spray wand having a length and width and a central feed tube split into two arms (110a, 110b) where each arm has a bend and a spray end (116a, 116b) capable of spraying paint and producing a paint fan when in use, where the spray ends (116a, 116b) of the two arms (110a, 110b) are separated at a predetermined first distance (b) from one another along the length of the dual-headed paint spray wand, with one arm positioned on each side of the central feed tube to permit the paint fan produced by the two arms (110a, 110b) when in use to overlap, characterized by the bends of the two arms being angled upward in directionally opposed fixed relationship to one another where one bend is angled upward and forward and the other bend is angled upward and rearward relative to one another such that the bends in the two arms are offset from one another wherein the rearward bend is directed opposite to the forward bend, and wherein the first distance (b) is orthogonal to the central feed tube, and wherein the two arms (110a, 110b) are offset by a second distance (c) being orthogonal to the first distance (b) and orthogonal to the central feed tube. characterized by the bends of the two arms being angled upward in directionally opposed fixed relationship to one another where one bend is angled upward and forward and the other bend is angled upward and rearward relative to one another such that the bends in the two arms are offset from one another wherein the rearward bend is directed opposite to the forward bend, and wherein the first distance (b) is orthogonal to the central feed tube, and wherein the two arms (110a, 110b) are offset by a second distance (c) being orthogonal to the first distance (b) and orthogonal to the central feed tube.
A method for maintaining the chromosomal stability of induced pluripotent stem cells by DNA damage, the method comprising: treating the induced pluripotent stem cells with SB431542, PD0325901, Thiazovivin and L-ascorbic acid in combination, wherein the induced pluripotent stem cells are generated by introduction of genes consisting of Oct4, Klf4, Sox2, and cMyc; and wherein SB431542, PD0325901, Thiazovivin and L-ascorbic acid in combination are added in a stage in which somatic cell reprogramming is induced. treating the induced pluripotent stem cells with SB431542, PD0325901, Thiazovivin and L-ascorbic acid in combination, wherein the induced pluripotent stem cells are generated by introduction of genes consisting of Oct4, Klf4, Sox2, and cMyc; and wherein SB431542, PD0325901, Thiazovivin and L-ascorbic acid in combination are added in a stage in which somatic cell reprogramming is induced.
A method for improving a Distance Measure Equipment, DME, interference resisting capability of a Long Term Evolution, LTE, system, applied to a User Equipment, UE, wherein the method comprises: comparing a power ratio between time domain data symbols transmitted from an eNB of the LTE system with a preset threshold to obtain a symbol level DME interference result, comprising: when the power ratio between the time domain data symbols is greater than and equal to the preset threshold, determining that there is a symbol level DME interference, and when the power ratio between the time domain data symbols is less than the preset threshold, determining that there is no symbol level DME interference; and sending a scheduling message used for downlink data transmission to the eNB of the LTE system according to the obtained symbol level DME interference result or according to the obtained symbol level DME interference result and a Physical Downlink Shared Channel, PDSCH, scheduling situation of a current subframe, to instruct the eNB of the LTE system to schedule a subframe. comparing a power ratio between time domain data symbols transmitted from an eNB of the LTE system with a preset threshold to obtain a symbol level DME interference result, comprising: when the power ratio between the time domain data symbols is greater than and equal to the preset threshold, determining that there is a symbol level DME interference, and when the power ratio between the time domain data symbols is less than the preset threshold, determining that there is no symbol level DME interference; and when the power ratio between the time domain data symbols is greater than and equal to the preset threshold, determining that there is a symbol level DME interference, and when the power ratio between the time domain data symbols is less than the preset threshold, determining that there is no symbol level DME interference; and sending a scheduling message used for downlink data transmission to the eNB of the LTE system according to the obtained symbol level DME interference result or according to the obtained symbol level DME interference result and a Physical Downlink Shared Channel, PDSCH, scheduling situation of a current subframe, to instruct the eNB of the LTE system to schedule a subframe.
Composition comprising a pharmaceutical grade triglyceride and a pharmaceutically acceptable emulsifier and optionally a pharmaceutically acceptable humectant wherein the triglyceride content is in the range of 8-240 g/ 1000 ml composition and the amount of emulsifier is 0.4-18 g/ 1000 ml composition and optionally an humectant in the amount of 1.2-30 g/1000 ml for use as an aqueous ultrasound contact fluid in intra surgical ultrasound imaging.
A work machine comprising: a work implement that is attached to a machine body, and has a plurality of front implement members (8, 9, 10) including a work tool; a plurality of actuators (4, 5, 6, 7) that drive the machine body and the plurality of front implement members (8, 9, 10); an operation device that operates the plurality of actuators (4, 5, 6, 7); a posture sensor that senses postural data about the machine body and the work implement; an operation sensor that senses operation data about the operation device; and a controller that is capable of controlling the work implement by using excavation assistance control of controlling the work implement such that the work tool moves along a predetermined target excavation surface and deviation prevention control of preventing deviation of the work implement from a predetermined work area by decelerating or stopping operation of a subject front implement member that is included in the plurality of front implement members (8, 9, 10) and that can deviate the work implement from the work area, wherein the controller is configured to control the work implement such that when the controller controls the work implement by using both the excavation assistance control and the deviation prevention control, an operation direction of the work tool approximates to an operation direction of the work tool that is to be generated when the work implement is controlled by using only the excavation assistance control. a work implement that is attached to a machine body, and has a plurality of front implement members (8, 9, 10) including a work tool; a plurality of actuators (4, 5, 6, 7) that drive the machine body and the plurality of front implement members (8, 9, 10); an operation device that operates the plurality of actuators (4, 5, 6, 7); a posture sensor that senses postural data about the machine body and the work implement; an operation sensor that senses operation data about the operation device; and a controller that is capable of controlling the work implement by using excavation assistance control of controlling the work implement such that the work tool moves along a predetermined target excavation surface and deviation prevention control of preventing deviation of the work implement from a predetermined work area by decelerating or stopping operation of a subject front implement member that is included in the plurality of front implement members (8, 9, 10) and that can deviate the work implement from the work area, wherein the controller is configured to control the work implement such that when the controller controls the work implement by using both the excavation assistance control and the deviation prevention control, an operation direction of the work tool approximates to an operation direction of the work tool that is to be generated when the work implement is controlled by using only the excavation assistance control.
Method for producing an armouring component for motor vehicles, the method having the following steps: - providing an armouring element made of an armoured steel, - blasting treatment of at least one region of a surface of the armouring element, - applying a coating to the surface of the armouring element treated by blasting, wherein the coating consists of a material softer than the armoured steel, characterised in that - the armouring element is provided from a steel sheet with a hardness of 380 to 760 Vickers, and - the armouring element consists of an armoured steel which has the following alloy constituents expressed in percentage by weight (wt.%): carbon 0.2 to 0.5 manganese (Mn) 0.5 to 2.5 nickel (Ni) 0.5 to 3.0 and silicon (Si) 0.1 to 3.0 phosphorus less than 0.05 sulphur less than 0.02 aluminium (Al) less than 0.08 copper (Cu) less than 0.12 molybdenum (Mb)0.1 to 1.0 boron 0.001 to 0.01 nitrogen less than 0.05 chromium (Cr) 0.1 to 1.0 titanium (Ti) less than 0.1 cobalt (Co) less than 2.0 niobium (Nb) less than 0.8, the remainder being iron (Fe) and smelting-derived impurities, and in that - a surface roughness Ra of 3 to 10 micrometres is produced in the blasting treatment and - a coating with a hardness of 10 to 230 Vickers is applied. - providing an armouring element made of an armoured steel, - blasting treatment of at least one region of a surface of the armouring element, - applying a coating to the surface of the armouring element treated by blasting, wherein the coating consists of a material softer than the armoured steel, characterised in that - the armouring element is provided from a steel sheet with a hardness of 380 to 760 Vickers, and - the armouring element consists of an armoured steel which has the following alloy constituents expressed in percentage by weight (wt.%): carbon 0.2 to 0.5 manganese (Mn) 0.5 to 2.5 nickel (Ni) 0.5 to 3.0 and silicon (Si) 0.1 to 3.0 phosphorus less than 0.05 sulphur less than 0.02 aluminium (Al) less than 0.08 copper (Cu) less than 0.12 molybdenum (Mb)0.1 to 1.0 boron 0.001 to 0.01 nitrogen less than 0.05 chromium (Cr) 0.1 to 1.0 titanium (Ti) less than 0.1 cobalt (Co) less than 2.0 niobium (Nb) less than 0.8, the remainder being iron (Fe) and smelting-derived impurities, and in that - a surface roughness Ra of 3 to 10 micrometres is produced in the blasting treatment and - a coating with a hardness of 10 to 230 Vickers is applied.
A surgical stapler for treating the tissue of a patient, comprising: a handle; a shaft extending from said handle; an end effector extending from said shaft, comprising: a first jaw; a second jaw, wherein one of said first jaw and said second jaw is movable relative to the other; a cartridge body including staple cavities; staples removably stored in said staple cavities; and an anvil configured to deform said staples; and a firing system configured to: eject said staples from said staple cavities toward said anvil during a firing stroke; and cut the tissue during a cutting stroke after said firing stroke has been completed, wherein said firing system comprises a firing bar, and characterized in that said firing bar is movable toward said end effector to perform said firing stroke and said cutting stroke. a handle; a shaft extending from said handle; an end effector extending from said shaft, comprising: a first jaw; a second jaw, wherein one of said first jaw and said second jaw is movable relative to the other; a cartridge body including staple cavities; staples removably stored in said staple cavities; and an anvil configured to deform said staples; and a first jaw; a second jaw, wherein one of said first jaw and said second jaw is movable relative to the other; a cartridge body including staple cavities; staples removably stored in said staple cavities; and an anvil configured to deform said staples; and a firing system configured to: eject said staples from said staple cavities toward said anvil during a firing stroke; and cut the tissue during a cutting stroke after said firing stroke has been completed, wherein said firing system comprises a firing bar, and characterized in that said firing bar is movable toward said end effector to perform said firing stroke and said cutting stroke. eject said staples from said staple cavities toward said anvil during a firing stroke; and cut the tissue during a cutting stroke after said firing stroke has been completed, wherein said firing system comprises a firing bar, and characterized in that said firing bar is movable toward said end effector to perform said firing stroke and said cutting stroke.
A sliding member comprising a base member and a diamond-like carbon coating formed on the base member; wherein an indentation hardness, measured according to international standard ISO 14577, of the DLC coating decreases gradually from the base member side to a surface side of the DLC coating; wherein the DLC coating has an indentation hardness distribution, measured according to international standard ISO 14577, at 0 ≤ T/Ttotal ≤ 0.6 that is approximated by a first line having T/Ttotal as a variable and an indentation hardness distribution at 0.9 ≤ T/Ttotal ≤ 1 that is approximated by a second line having T/Ttotal as a variable, where Ttotal is a thickness of the DLC coating in μm, and T is a thickness position from the base member side of the DLC coating in μm; wherein H2 and T2 satisfy Expression and Expression, where H1 is the indentation hardness of the DLC coating in GPa at T = 0 μm on the first line, H2 is the indentation hardness of the DLC coating in GPa at an intersection between the first line and the second line, T2 is the thickness position at the intersection in μm, and H3 is the indentation hardness of the DLC coating in GPa at T = Ttotal on the second line, H 3 − H 1 × T 2 / Ttotal + H 1 < H 2 ≤ 0.9 × H 1 0.6 ≤ T 2 / Ttotal ≤ 0.9 and wherein H1 is 30 GPa or more and H3 is 5 GPa or more and 20 GPa or less.