mhurhangee/patent-ind-claim-en huggingface dataset:
An electrically conductive sized fiber comprising: a carbon fiber, and a sizing composition adhered to a surface of the fiber, wherein the sizing composition comprises at least one sizing compound and a plurality of graphene oxide nanoparticles, wherein the graphene oxide nanoparticles are in the form of graphene oxide nanoplatelets, and wherein the graphene oxide nanoparticles are encapsulated by the at least one sizing compound and adhered to the surface of the fiber. a carbon fiber, and a sizing composition adhered to a surface of the fiber, wherein the sizing composition comprises at least one sizing compound and a plurality of graphene oxide nanoparticles, wherein the graphene oxide nanoparticles are in the form of graphene oxide nanoplatelets, and wherein the graphene oxide nanoparticles are encapsulated by the at least one sizing compound and adhered to the surface of the fiber.
A wound dressing (1, 1', 1", 1"', 1"") comprising an absorbent core with a top carrier layer and a bottom carrier layer carrying a superabsorbent substance dispersed between the top carrier layer and the bottom carrier layer , and a shell formed by a facing layer and a backing layer , wherein the absorbent core is located in the shell between the facing layer and the backing layer , wherein the facing layer and the backing layer each comprise a supporting structure , and wherein the supporting structure of the facing layer and of the backing layer each comprise an inner surface facing towards the absorbent core and an outer surface facing away from the absorbent core , characterized in that at least one of the outer surface of the supporting structure of the facing layer and the outer surface of the supporting structure of the backing layer is laminated with a foam layer , wherein the surface of the foam layer and the surface of the supporting structure facing towards each other are joined together over an area which is at least 1/3 of the overall surface of the foam layer . an absorbent core with a top carrier layer and a bottom carrier layer carrying a superabsorbent substance dispersed between the top carrier layer and the bottom carrier layer , and a shell formed by a facing layer and a backing layer , wherein the absorbent core is located in the shell between the facing layer and the backing layer , wherein the facing layer and the backing layer each comprise a supporting structure , and wherein the supporting structure of the facing layer and of the backing layer each comprise an inner surface facing towards the absorbent core and an outer surface facing away from the absorbent core ,
A calibration apparatus for assembly of a medical instrument, comprising: a jig body ; a camera ; an elongated strip which is deflectable and resilient; a lower groove which is disposed in the jig body, and is configured to receive and grasp the camera therein; an upper groove , which is disposed in the jig body above the lower groove, and is configured to receive and grasp the elongated strip therein so as to position the elongated strip above, and in a fixed relation to, the camera, the upper groove being wider than the lower groove; and an alignment element , which is disposed in the jig body, and is configured to align an end of the camera with an end of the elongated strip. a jig body ; a camera ; an elongated strip which is deflectable and resilient; a lower groove which is disposed in the jig body, and is configured to receive and grasp the camera therein; an upper groove , which is disposed in the jig body above the lower groove, and is configured to receive and grasp the elongated strip therein so as to position the elongated strip above, and in a fixed relation to, the camera, the upper groove being wider than the lower groove; and an alignment element , which is disposed in the jig body, and is configured to align an end of the camera with an end of the elongated strip.
A support for sheet material , comprising: a V-frame cradle including a first arm and a second arm , the second arm in communication with the first arm to form a receiving area to receive and support a roll of the sheet material between the first and second arms; and a drive roller for transporting the sheet material from the roll, wherein: the first arm and the second arm commonly share the drive roller; and the drive roller receives mechanical energy from a separate drive ; sensors for tracking displacement of the first arm and the second arm; wherein the first arm and the second arm automatically resize the V-frame cradle responsive to the sensors sensing dynamics of the roll of the sheet material, such as those corresponding to dimensions of the roll of sheet material, to provide constant tension in the roll of sheet material by controlling a position of the roll of the sheet material. a V-frame cradle including a first arm and a second arm , the second arm in communication with the first arm to form a receiving area to receive and support a roll of the sheet material between the first and second arms; and a drive roller for transporting the sheet material from the roll, wherein: the first arm and the second arm commonly share the drive roller; and the drive roller receives mechanical energy from a separate drive ; sensors for tracking displacement of the first arm and the second arm; wherein the first arm and the second arm automatically resize the V-frame cradle responsive to the sensors sensing dynamics of the roll of the sheet material, such as those corresponding to dimensions of the roll of sheet material, to provide constant tension in the roll of sheet material by controlling a position of the roll of the sheet material.
A method of enlarging an observation window from which a Computer Generated Holographic, CGH, image may be viewed, comprising: producing a CGH image by illuminating a computer controlled Spatial Light Modulator SLM using coherent light, thereby modulating the coherent light, and wherein the SLM is controlled so as to produce a real CGH image ; projecting the real CGH image using an optical system , thereby also producing an observation window which is an image of the SLM through the optical system , from which the projected CGH image may be viewed by an observer ; and jittering a location of the observation window of the CGH image relative to the observer location by jittering an image deflector , located at a location of the real CGH image and optically coupled to the optical system projecting the real CGH image . producing a CGH image by illuminating a computer controlled Spatial Light Modulator SLM using coherent light, thereby modulating the coherent light, and wherein the SLM is controlled so as to produce a real CGH image ; projecting the real CGH image using an optical system , thereby also producing an observation window which is an image of the SLM through the optical system , from which the projected CGH image may be viewed by an observer ; and jittering a location of the observation window of the CGH image relative to the observer location by jittering an image deflector , located at a location of the real CGH image and optically coupled to the optical system projecting the real CGH image .
An optical laminate comprising: a transparent base material ; a hard coat layer ; an optical function layer ; and an anti-fouling layer , which are laminated in that order, wherein the hard coat layer contains a filler, and a part of the filler is aggregated to form aggregates, the hard coat layer has a thickness of 3 μm or more and 25 μm or less, a 10-point average roughness Rz of a surface of the optical laminate is 19 nm or more and 100 nm or less, an apparent average particle diameter of an aggregate of the filler, which is obtained by measuring the surface of the optical laminate with an atomic force microscope, is 150 nm or more and 2200 nm or less, and a low refractive index layer and a high refractive index layer are alternately laminated in the optical function layer . a transparent base material ; a hard coat layer ; an optical function layer ; and an anti-fouling layer , which are laminated in that order, wherein the hard coat layer contains a filler, and a part of the filler is aggregated to form aggregates, the hard coat layer has a thickness of 3 μm or more and 25 μm or less, a 10-point average roughness Rz of a surface of the optical laminate is 19 nm or more and 100 nm or less, an apparent average particle diameter of an aggregate of the filler, which is obtained by measuring the surface of the optical laminate with an atomic force microscope, is 150 nm or more and 2200 nm or less, and a low refractive index layer and a high refractive index layer are alternately laminated in the optical function layer .
A method for power headroom, PH, reporting by a user equipment, UE , in a wireless communication system supporting a shorter transmission time interval, TTI, length than a subframe length, the method comprising: obtaining a PH value for a cell configured with a TTI length different from the shorter TTI length; and transmitting the obtained PH value through a physical uplink shared channel, PUSCH, having the shorter TTI length, in a case where a PUSCH transmission having the different TTI length is scheduled on the cell, the PH value for the cell is obtained based on actual PUSCH transmission-related power control parameters including a PUSCH bandwidth related parameter and a PUSCH modulation and coding scheme, MCS, related parameter, and in a case where the PUSCH transmission having the different TTI length is not scheduled on the cell, the PH value for the cell is obtained based on virtual PUSCH transmission-related power control parameters other than the PUSCH bandwidth related parameter and the PUSCH MCS related parameter. obtaining a PH value for a cell configured with a TTI length different from the shorter TTI length; and transmitting the obtained PH value through a physical uplink shared channel, PUSCH, having the shorter TTI length, in a case where a PUSCH transmission having the different TTI length is scheduled on the cell, the PH value for the cell is obtained based on actual PUSCH transmission-related power control parameters including a PUSCH bandwidth related parameter and a PUSCH modulation and coding scheme, MCS, related parameter, and in a case where the PUSCH transmission having the different TTI length is not scheduled on the cell, the PH value for the cell is obtained based on virtual PUSCH transmission-related power control parameters other than the PUSCH bandwidth related parameter and the PUSCH MCS related parameter.
An electric pump (P) in which a motor and a crank mechanism driven by the motor are integrally assembled inside a case body adjacent to a pump , comprising: a rotor formed in a cup shape integrally assembled to a rotor shaft extended from the motor side to the crank mechanism side inside the case body in a state where an opening of the rotor is directed to a shaft end on the motor side and the rotor is being rotatably supported by an intermediate bearing arranged inside the opening; an eccentric cam integrally provided with a top surface portion of the rotor , which is eccentric to a shaft center of the rotor shaft ; and a crank shaft one end side of which is assembled to the eccentric cam through a cam bearing and the other end side of which is connected to the pump side, wherein the motor is driven to be rotated, thereby converting a rotary motion of the eccentric cam around the rotor shaft into a reciprocating motion of the crank shaft and driving the pump . a rotor formed in a cup shape integrally assembled to a rotor shaft extended from the motor side to the crank mechanism side inside the case body in a state where an opening of the rotor is directed to a shaft end on the motor side and the rotor is being rotatably supported by an intermediate bearing arranged inside the opening; an eccentric cam integrally provided with a top surface portion of the rotor , which is eccentric to a shaft center of the rotor shaft ; and a crank shaft one end side of which is assembled to the eccentric cam through a cam bearing and the other end side of which is connected to the pump side, wherein the motor is driven to be rotated, thereby converting a rotary motion of the eccentric cam around the rotor shaft into a reciprocating motion of the crank shaft and driving the pump .
A bimodal spinneret , comprising: a body defining a longitudinal axis, the body including a top surface and a bottom surface , the body defining a cavity for receiving a quantity of material therein, wherein the cavity includes a nadir ; and at least two holes disposed along the longitudinal axis of the spinneret at the nadir of the cavity, each of the at least two holes having a hole diameter, wherein at least one hole has a first diameter (D1) and least one hole has a second diameter (D2) different than the first diameter, wherein said holes are disposed along the longitudinal axis of the spinneret in a pattern of alternating first and second diameters, wherein each of the holes has a hole depth extending from a top surface to a bottom surface of the body, wherein each hole depth is different. a body defining a longitudinal axis, the body including a top surface and a bottom surface , the body defining a cavity for receiving a quantity of material therein, wherein the cavity includes a nadir ; and at least two holes disposed along the longitudinal axis of the spinneret at the nadir of the cavity, each of the at least two holes having a hole diameter, wherein at least one hole has a first diameter (D1) and least one hole has a second diameter (D2) different than the first diameter, wherein said holes are disposed along the longitudinal axis of the spinneret in a pattern of alternating first and second diameters, wherein each of the holes has a hole depth extending from a top surface to a bottom surface of the body, wherein each hole depth is different.
A filter with a filter cotton cleaning device in an aquarium or a garden pond, comprising a central axial column arranged on a barrel cover (A) of the filter, a filter cotton sleeving the central axial column via a central hole of the filter cotton to enable the filter cotton to rotate around the central axial column , a blocking bar axially arranged at an outer side of the filter cotton , wherein the filter cotton is extruded between the blocking bar and the central axial column ; characterized in that upper and lower connecting plates are respectively arranged above and below the filter cotton , and respectively sleeve the central axial column via central holes of the upper and lower connecting plates , so that the upper and lower connecting plates are rotatable around the central axial column ; shifting forks are further connected between the upper and lower connecting plates , and pass through eccentric holes of the filter cotton , so that the filter cotton is drivable by the shifting forks to rotate around the central axial column along with the upper and lower connecting plates ; a gear plate is further fixed on the upper connecting plate, and sleeves the central axial column via a central hole of the gear plate so as to enable the gear plate to rotate around the central axial column ; the barrel cover (A) is provided with a handle or a motor; a lower end of the handle or a shaft of the motor is provided with an actuating gear which is meshed with the gear plate, so that the handle or the motor drives the gear plate to rotate via the actuating gear .
A fan coil integrable in a false ceiling, comprising: - a housing , and - a diffuser , which delimits with the housing a diffusion slot , adapted to diffuse air jets in at least three average directions (F1, F2, F3) contained within a diffusion plane (P16), characterized in that it further comprises at least one baffle , which is mounted on the diffuser and is adapted to direct at least one of the diffused air jets through a slot in an average direction (F2, F3) inclined with respect to an axis (X2) perpendicular to a side of the housing . - a housing , and - a diffuser , which delimits with the housing a diffusion slot , adapted to diffuse air
A method, in a Domain Name System, DNS, in a first Public Land Mobile Network, PLMN, wherein the DNS is configured to have at least two DNS entries for each Network Function, NF, and wherein first DNS entries are configured for use in processing DNS requests that originate from outside of the first PLMN, and wherein second DNS entries are configured for use in processing DNS requests that originated from within the first PLMN, the method comprising: receiving an address request from a first NF for an Internet Protocol, IP, address associated with a domain name of a second NF; determining whether the second NF is within the first PLMN; and based on a determination and whether the first NF is within the first PLMN, and based on the determination of whether the second NF is within the first PLMN, generating an address response comprising an IP address associated with the second NF by: - responsive to the second NF and the first NF being within the first PLMN, generating the address response comprising the IP address of the second NF; - responsive to the second NF being within the first PLMN, and the first NF not being within the first PLMN, generating the address response comprising the IP address of a first edge security node of the first PLMN; - responsive to the first NF being within the first PLMN, and the second NF not being within the PLMN, generating the address response comprising the IP address of a first edge security node in the first PLMN; and - responsive to the neither first NF nor the second NF being within the first PLMN, generating the address response comprising the IP address of a second edge security node in a different PLMN to the first PLMN. receiving an address request from a first NF for an Internet Protocol, IP, address associated with a domain name of a second NF; determining whether the second NF is within the first PLMN; and - responsive to the second NF and the first NF being within the first PLMN, generating the address response comprising the IP address of the second NF; - responsive to the second NF being within the first PLMN, and the first NF not being within the first PLMN, generating the address response comprising the IP address of a first edge security node of the first PLMN; - responsive to the first NF being within the first PLMN, and the second NF not being within the PLMN, generating the address response comprising the IP address of a first edge security node in the first PLMN; and - responsive to the neither first NF nor the second NF being within the first PLMN, generating the address response comprising the IP address of a second edge security node in a different PLMN to the first PLMN.
An isolated transferrin receptor (TfR)-specific binding moiety comprising a VNAR domain capable of specifically binding to human TfR-1 without interfering with transferrin binding to and/or transport by said human TfR-1, and wherein said moiety is capable of cross reacting with mouse TfR-1; wherein said VNAR domain comprises a VNAR scaffold represented by the formula, from N to C terminus: FW1-CDR1-FW2-HV2-FW2' -HV4-FW3-CDR3-FW4 wherein CDR1-FW2-HV2-FW2'-HV4-FW3-CDR3 has the sequence: and wherein said moiety is capable of cross reacting with mouse TfR-1; wherein said VNAR domain comprises a VNAR scaffold represented by the formula, from N to C terminus: FW1-CDR1-FW2-HV2-FW2' -HV4-FW3-CDR3-FW4 wherein CDR1-FW2-HV2-FW2'-HV4-FW3-CDR3 has the sequence:
A method for encoding a light field content, the method comprising: - obtaining, for a set of light rays associated with said light field content, four coordinates per light ray from a two planes parametrization (2000; 402, 403) of said light field content, wherein said four coordinates per light ray are coordinates of intersection points of said light ray with the two planes used for said two planes parametrization, said intersection points being points in coordinate systems defined by said two planes , said two planes being parallel to each other and having known z-values; and - obtaining , for each light ray from said set, two coordinates from said four coordinates, corresponding to a projection of said intersection points of said light rays from said set onto a plane (404, 405, P) perpendicular to said two planes used in said two planes parametrization, defining points in a first 2D ray diagram (Π(x 1 , x 2 ), Π(y 1 , y 2 )); - applying a discrete Radon transform to said first 2D ray diagram (Π(x 1 , x 2 ), Π(y 1 , y 2 )) that delivers lines of interest in said first 2D ray diagram; the method being characterized by - determining parameters (a, d, s) of said lines of interest, said parameters comprising for each line of interest a slope (a) or a parameter (s) coupled with the slope (a), and an intercept (d); and - storing said light field content in a file that indicates for each line of interest said parameters (a, d, s) of said line of interest as well as color values of light rays belonging to points of said line of interest. - obtaining, for a set of light rays associated with said light field content, four coordinates per light ray from a two planes parametrization (2000; 402, 403) of said light field content, wherein said four coordinates per light ray are coordinates of intersection points of said light ray with the two planes used for said two planes parametrization, said intersection points being points in coordinate systems defined by said two planes , said two planes being parallel to each other and having known z-values; and - obtaining , for each light ray from said set, two coordinates from said four coordinates, corresponding to a projection of said intersection points of said light rays from said set onto a plane (404, 405, P) perpendicular to said two planes used in said two planes parametrization, defining points in a first 2D ray diagram (Π(x 1 , x 2 ), Π(y 1 , y 2 )); - applying a discrete Radon transform to said first 2D ray diagram (Π(x 1 , x 2 ), Π(y 1 , y 2 )) that delivers lines of interest in said first 2D ray diagram; - determining parameters (a, d, s) of said lines of interest, said parameters comprising for each line of interest a slope (a) or a parameter (s) coupled with the slope (a), and an intercept (d); and - storing said light field content in a file that indicates for each line of interest said parameters (a, d, s) of said line of interest as well as color values of light rays belonging to points of said line of interest.
An ultrasound diagnosis apparatus comprising: a pressure measurer that measures a pressure value applied from a probe to a cervix; an image generator that scans an object to acquire an ultrasound image; a controller that detects a contour line from the ultrasound image, determines whether a cervix line is included in the ultrasound image based on the contour line, acquires the measured pressure value from the pressure measurer , corresponding to the ultrasound image, as a first pressure value when the cervix line is included in the ultrasound image, and acquires a second pressure value which is stored in a memory as a pressure value that is suitable for measuring a length of the cervix line; and an output unit that outputs pressure information based on the first pressure value and the second pressure value. a pressure measurer that measures a pressure value applied from a probe to a cervix; an image generator that scans an object to acquire an ultrasound image; a controller that detects a contour line from the ultrasound image, determines whether a cervix line is included in the ultrasound image based on the contour line, acquires the measured pressure value from the pressure measurer , corresponding to the ultrasound image, as a first pressure value when the cervix line is included in the ultrasound image, and acquires a second pressure value which is stored in a memory as a pressure value that is suitable for measuring a length of the cervix line; and an output unit that outputs pressure information based on the first pressure value and the second pressure value.