mhurhangee/ep-ind-claims huggingface dataset:
A golf ball comprising a spherical core, an intermediate layer positioned outside the spherical core, and a cover positioned outside the intermediate layer, wherein the spherical core includes an inner layer and an outer layer, a difference (H X+1 -H X-1) between a hardness (H X+1) at a point outwardly away in a radial direction from a boundary between the inner layer and the outer layer of the spherical core by 1 mm and a hardness (H X-1) at a point inwardly away in the radial direction from the boundary between the inner layer and the outer layer of the spherical core by 1 mm is 0 or more in Shore C hardness, a surface hardness (H X+Y) of the spherical core is more than 70 in Shore C hardness, an angle α of a hardness gradient of the inner layer calculated by a formula is 0° or more, a difference (α-β) between the angle α and an angle β of a hardness gradient of the outer layer calculated by a formula is 0° or more, and the intermediate layer has a highest hardness among the constituent members of the golf ball, α = 180 / π × atan H x − 1 − Hoc / X − 1 β = 180 / π × atan H X + Y − H x + 1 / Y − 1 where X represents a radius (mm) of the inner layer, Y represents a thickness (mm) of the outer layer, Hoc represents a center hardness in Shore C of the spherical core, H X-1 represents the hardness in Shore C at the point inwardly away in the radial direction from the boundary between the inner layer and the outer layer of the spherical core by 1 mm, H X+1 represents the hardness in Shore C at the point outwardly away in the radial direction from the boundary between the inner layer and the outer layer of the spherical core by 1 mm, and H X+Y represents the surface hardness in Shore C of the spherical core and a difference (Hm-Hb) between a hardness (Hm) of the intermediate layer and a surface hardness (Hb) of the golf ball is less than 9 in Shore D hardness.
A limb support comprising a longitudinal member configured to be coupled to a patient support apparatus, and a carriage movable along the longitudinal member to a plurality of positions, the carriage including a plurality of rollers (34, 36, 38, 40) supporting the carriage relative to the longitudinal member for movement along the longitudinal member, and a clamp for securing the carriage to the longitudinal member, the clamp including a plurality of elastomeric blocks(130, 134) which deform under a load to secure the carriage to the longitudinal member; the limb support being characterized in that at least one of the plurality of rollers includes a tread configured to resist rolling to dampen movement of the carriage along the longitudinal member.
A medical instrument comprising: - a high intensity focused ultrasound system for sonicating a target region within a subject; - a light source for exciting a temperature sensitive fluorescent dye, wherein the light source is configured for coupling to an optical fiber cable of a urinary catheter; - a light sensor for measuring fluorescence emitted by the temperature sensitive fluorescent dye, wherein the light sensor is configured for coupling to the optical fiber cable; - a fluorescent dye reservoir; and - a pump system configured for connecting to the urinary catheter, wherein the pump system is further connected to the fluorescent dye reservoir, wherein the pump system is configured for pumping from the fluorescent dye reservoir to the distal end of the urinary catheter; - a memory for storing machine executable instructions; and - a processor for controlling the medical instrument; wherein execution of the machine executable instructions cause the processor to: - receive a sonication plan descriptive of a sonication of the target region; - measure the fluorescence using the light sensor; - calculate a bladder temperature using the fluorescence; and - generate sonication commands using the sonication plan and the bladder temperature, wherein the sonication commands are adapted for controlling the high intensity focused ultrasound system to sonicate the target region. - a high intensity focused ultrasound system for sonicating a target region within a subject; - a light source for exciting a temperature sensitive fluorescent dye, wherein the light source is configured for coupling to an optical fiber cable of a urinary catheter; - a light sensor for measuring fluorescence emitted by the temperature sensitive fluorescent dye, wherein the light sensor is configured for coupling to the optical fiber cable; - a fluorescent dye reservoir; and - a pump system configured for connecting to the urinary catheter, wherein the pump system is further connected to the fluorescent dye reservoir, wherein the pump system is configured for pumping from the fluorescent dye reservoir to the distal end of the urinary catheter; - a memory for storing machine executable instructions; and - a processor for controlling the medical instrument; wherein execution of the machine executable instructions cause the processor to: - receive a sonication plan descriptive of a sonication of the target region; - measure the fluorescence using the light sensor; - calculate a bladder temperature using the fluorescence; and - generate sonication commands using the sonication plan and the bladder temperature, wherein the sonication commands are adapted for controlling the high intensity focused ultrasound system to sonicate the target region. - receive a sonication plan descriptive of a sonication of the target region; - measure the fluorescence using the light sensor; - calculate a bladder temperature using the fluorescence; and - generate sonication commands using the sonication plan and the bladder temperature, wherein the sonication commands are adapted for controlling the high intensity focused ultrasound system to sonicate the target region.
A hard surface cleaning solution for descaling calcium and lime, consisting of: an organic acid comprising a carboxylic acid selected from the group consisting of lactic acid, formic acid, citric acid and acetic acid, present in the solution in an amount of 5.0 wt.% - 10.0 wt.% of the active cleaning solution; a surfactant comprising an amine oxide; a solvent comprising an ether alcohol; a diluent; and optionally one or more additives selected from the group consisting of colorants, fragrance enhancers, nonionic surfactants, corrosion inhibiting agents, defoamers, pH stabilizers and stabilizing agents; in which the composition has a pH ranging from 2.0 to 2.5; wherein the surfactant does not contain salt (NaCl) or sodium (Na), either as an element of fundamental surfactant molecules or as a production by product, that can adversely affect the pH of the resulting cleaning solution; wherein the solution excludes inorganic acids. an organic acid comprising a carboxylic acid selected from the group consisting of lactic acid, formic acid, citric acid and acetic acid, present in the solution in an amount of 5.0 wt.% - 10.0 wt.% of the active cleaning solution; a surfactant comprising an amine oxide; a solvent comprising an ether alcohol; a diluent; and optionally one or more additives selected from the group consisting of colorants, fragrance enhancers, nonionic surfactants, corrosion inhibiting agents, defoamers, pH stabilizers and stabilizing agents; in which the composition has a pH ranging from 2.0 to 2.5; wherein the surfactant does not contain salt (NaCl) or sodium (Na), either as an element of fundamental surfactant molecules or as a production by product, that can adversely affect the pH of the resulting cleaning solution; wherein the solution excludes inorganic acids.
A piston (10; 20) for a reciprocating-piston internal combustion engine, comprising a piston crown, having an encircling ring section with at least one ring groove for a piston ring; a piston skirt; and a first cooling channel, having an upper section arranged in the region of the ring section and a lower section which proceeds from the upper section and which extends along an inner surface of the wall of the piston skirt; wherein the first cooling channel is closed and is permanently filled with a medium; characterized by an open second cooling channel.
A total hip surface replacement implant for the human body comprising a femur component and an acetabular cup component, wherein: a shape of the femur component is hemispherical shell; and a shape of the acetabular cup component is matched with that of the femur component, and is tightly attached to an outer surface of the hemispherical shell of the femur component; characterized in that an inner central portion of the hemispherical shell of the femur component is provided with a hollow positioning column in which there is provided with a metal column core, wherein an upper end of the metal column core is lower than a combined portion of the femur surface component with the positioning column, wherein the femur component is formed of polyether ether ketone, the acetabular cup component is formed of ultrahigh molecular weight polyethylene; or the femur component is formed of ultrahigh molecular weight polyethylene, the acetabular cup component is formed of polyether ether ketone, wherein the inner surface of the hemispherical shell and an outer surface of the positioning column are provided with a layer of porous metal layer, the thickness of the porous metal layer is greater than 0.5 mm and the porosity is higher than 20%. a shape of the femur component is hemispherical shell; and a shape of the acetabular cup component is matched with that of the femur component, and is tightly attached to an outer surface of the hemispherical shell of the femur component; characterized in that an inner central portion of the hemispherical shell of the femur component is provided with a hollow positioning column in which there is provided with a metal column core, wherein an upper end of the metal column core is lower than a combined portion of the femur surface component with the positioning column, wherein the femur component is formed of polyether ether ketone, the acetabular cup component is formed of ultrahigh molecular weight polyethylene; or the femur component is formed of ultrahigh molecular weight polyethylene, the acetabular cup component is formed of polyether ether ketone, wherein the inner surface of the hemispherical shell and an outer surface of the positioning column are provided with a layer of porous metal layer, the thickness of the porous metal layer is greater than 0.5 mm and the porosity is higher than 20%.
A camera device, comprising: a camera housing including a front surface and a rear surface, the camera housing having a thickness D where D is a distance between said front surface and said rear surface; a first optical chain having a first focal length, the first optical chain including a first light redirection device (1705""") and a first non-circular lens (1703"""), said first non-circular lens (1703""") having a length less than or equal to D in a first direction and a length larger than D along a second direction perpendicular to the first direction; and a second optical chain having a second focal length, the second optical chain including a second light redirection device and a second non-circular lens, the second non-circular lens having a length less than or equal to D in a third direction and a length larger than D along a fourth direction perpendicular to the third direction, said second and fourth directions being different. a camera housing including a front surface and a rear surface, the camera housing having a thickness D where D is a distance between said front surface and said rear surface; a first optical chain having a first focal length, the first optical chain including a first light redirection device (1705""") and a first non-circular lens (1703"""), said first non-circular lens (1703""") having a length less than or equal to D in a first direction and a length larger than D along a second direction perpendicular to the first direction; and a second optical chain having a second focal length, the second optical chain including a second light redirection device and a second non-circular lens, the second non-circular lens having a length less than or equal to D in a third direction and a length larger than D along a fourth direction perpendicular to the third direction, said second and fourth directions being different.
A plunger head for a medication injection device, comprising: a first component having electronic components housed within the first component, wherein the electronic components include: a transducer positioned in the plunger head to emit ultrasonic signals into a barrel of the medication injection device so that the ultrasonic signals travel along the barrel to an end of the barrel and return to the transducer; and a microcontroller coupled to the transducer and programmed with instructions to calculate data representative of a quantity of medication dispensed from the barrel of the medication injection device based on the ultrasonic signals returning to the transducer; and a second component at least partially surrounding the first component; wherein the second component separates the first component from the medication contained within the barrel of the medication injection device. a first component having electronic components housed within the first component, wherein the electronic components include: a transducer positioned in the plunger head to emit ultrasonic signals into a barrel of the medication injection device so that the ultrasonic signals travel along the barrel to an end of the barrel and return to the transducer; and a microcontroller coupled to the transducer and programmed with instructions to calculate data representative of a quantity of medication dispensed from the barrel of the medication injection device based on the ultrasonic signals returning to the transducer; and a transducer positioned in the plunger head to emit ultrasonic signals into a barrel of the medication injection device so that the ultrasonic signals travel along the barrel to an end of the barrel and return to the transducer; and a microcontroller coupled to the transducer and programmed with instructions to calculate data representative of a quantity of medication dispensed from the barrel of the medication injection device based on the ultrasonic signals returning to the transducer; and a second component at least partially surrounding the first component; wherein the second component separates the first component from the medication contained within the barrel of the medication injection device.
A method of hydrocarbon monitoring of a flowing fluid in a conduit of a wellbore, the method, comprising: receiving, at a processor, downhole measurements of a flowing fluid from a flowmeter, the flowmeter disposed on a conduit in a wellbore and having a speed of sound (SoS) meter, wherein a parameter file for the flowmeter is used in making the downhole measurements; determining, at the processor, a standard phase fraction ( φ std) and a SoS of a first phase of the flowing fluid based on the downhole measurements from the flowmeter; receiving, at the processor, surface measurements of the flowing fluid from surface sensors; determining, at the processor, a surface phase fraction of the flowing fluid based on the surface measurements; comparing, at the processor the standard phase fraction ( φ std) to the surface phase fraction; based on the comparison being greater than a predetermined threshold, deriving, at the processor, a target value using the surface measurements as a reference, and adjusting the SoS of the first phase until the target value is achieved such that an adjusted SoS of the first phase is generated; updating the parameter file for the flowmeter with the adjusted SoS of the first phase to improve performance of the flowmeter; and, receiving, at the processor, additional downhole measurements of the flowing fluid from the flowmeter, wherein the parameter file for the flowmeter uses the adjusted SoS of the first phase in making the additional downhole measurements. receiving, at a processor, downhole measurements of a flowing fluid from a flowmeter, the flowmeter disposed on a conduit in a wellbore and having a speed of sound (SoS) meter, wherein a parameter file for the flowmeter is used in making the downhole measurements; determining, at the processor, a standard phase fraction ( φ std) and a SoS of a first phase of the flowing fluid based on the downhole measurements from the flowmeter; receiving, at the processor, surface measurements of the flowing fluid from surface sensors; determining, at the processor, a surface phase fraction of the flowing fluid based on the surface measurements; comparing, at the processor the standard phase fraction ( φ std) to the surface phase fraction; based on the comparison being greater than a predetermined threshold, deriving, at the processor, a target value using the surface measurements as a reference, and adjusting the SoS of the first phase until the target value is achieved such that an adjusted SoS of the first phase is generated; updating the parameter file for the flowmeter with the adjusted SoS of the first phase to improve performance of the flowmeter; and, receiving, at the processor, additional downhole measurements of the flowing fluid from the flowmeter, wherein the parameter file for the flowmeter uses the adjusted SoS of the first phase in making the additional downhole measurements.
A method of reducing video delay in a program stream, the program stream comprising a video and an audio stream, the method comprising: providing independent audio and video reference clocks (385, 390); initially setting the rate of the video reference clock to be slower than the rate of the audio reference clock; setting the audio reference clock to an initial value based on a presentation timestamp for a frame that is the first decodable frame in the audio stream; setting the video reference clock to an initial value based on a presentation timestamp for a frame that is the first decodable frame in the video stream; starting the audio and video reference clocks (385, 390) responsive to the later of a minimum required audio buffering delay and receipt of a frame that is the first entire decodable frame in the video stream; decoding the audio stream in accordance with the audio reference clock; and decoding the video stream in accordance with the video reference clock. providing independent audio and video reference clocks (385, 390); initially setting the rate of the video reference clock to be slower than the rate of the audio reference clock; setting the audio reference clock to an initial value based on a presentation timestamp for a frame that is the first decodable frame in the audio stream; setting the video reference clock to an initial value based on a presentation timestamp for a frame that is the first decodable frame in the video stream; starting the audio and video reference clocks (385, 390) responsive to the later of a minimum required audio buffering delay and receipt of a frame that is the first entire decodable frame in the video stream; decoding the audio stream in accordance with the audio reference clock; and decoding the video stream in accordance with the video reference clock.
A biomaterial for use in the treatment of osteochondral bone defects and preferably in treatment of defects of bone covered by hyaline cartilage comprising, - a body manufactured from a biocompatible material, - grooves on the body which provides advancing in the defect area, - a space in the body which increases the contact area with the surrounding tissue, - at least one channel which opens to said space and which enables the blood to be transferred into the medium and enables the toxic materials to be removed from the medium, and characterized by; - a felt part which is affixed to the upper part of the body by using biocompatible glues known in the art, - a header part located on the body which can be removed after the material is placed into the defect area in the body. - a body manufactured from a biocompatible material, - grooves on the body which provides advancing in the defect area, - a space in the body which increases the contact area with the surrounding tissue, - at least one channel which opens to said space and which enables the blood to be transferred into the medium and enables the toxic materials to be removed from the medium, - a felt part which is affixed to the upper part of the body by using biocompatible glues known in the art, - a header part located on the body which can be removed after the material is placed into the defect area in the body.
Complex comprising at least one IL-6 binding polypeptide and at least one antibody or an antigen binding fragment thereof, wherein said IL-6 binding polypeptide comprises an IL-6 binding motif BM, which motif consists of an amino acid sequence selected from: i) EEX 3 X 4 AWX 7 EIHX 11 LPNLX 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 X 29 whe rein, independently from each other, X 3 is selected from A, F, H, K, Q, R, S, W and Y; X 4 is selected from A, D, E, F, H, I, K, L, M, N, Q, R, S, T, V and Y; X 7 is selected from F, H, I, K, L, M, N, R, S, T, V, W and Y; X 11 is selected from A, I, K, L, M, N, R, S, T and V; X 16 is selected from N and T; X 17 is selected from A, I, T and V; X 18 is selected from D, E, G, H, K, N, Q, R, S and T; X 20 is selected from I, L, M, R, T and V; X 21 is selected from A, S, T and V; X 25 is selected from I, M, Q, S, T, V and W; X 26 is selected from K and S; X 28 is selected from F, L, M and Y; and X 29 is selected from D and R; and ii) an amino acid sequence which has at least 93 % identity to the sequence defined in i). i) EEX 3 X 4 AWX 7 EIHX 11 LPNLX 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 X 29 whe rein, independently from each other, X 3 is selected from A, F, H, K, Q, R, S, W and Y; X 4 is selected from A, D, E, F, H, I, K, L, M, N, Q, R, S, T, V and Y; X 7 is selected from F, H, I, K, L, M, N, R, S, T, V, W and Y; X 11 is selected from A, I, K, L, M, N, R, S, T and V; X 16 is selected from N and T; X 17 is selected from A, I, T and V; X 18 is selected from D, E, G, H, K, N, Q, R, S and T; X 20 is selected from I, L, M, R, T and V; X 21 is selected from A, S, T and V; X 25 is selected from I, M, Q, S, T, V and W; X 26 is selected from K and S; X 28 is selected from F, L, M and Y; and X 29 is selected from D and R; and X 3 is selected from A, F, H, K, Q, R, S, W and Y; X 4 is selected from A, D, E, F, H, I, K, L, M, N, Q, R, S, T, V and Y; X 7 is selected from F, H, I, K, L, M, N, R, S, T, V, W and Y; X 11 is selected from A, I, K, L, M, N, R, S, T and V; X 16 is selected from N and T; X 17 is selected from A, I, T and V; X 18 is selected from D, E, G, H, K, N, Q, R, S and T; X 20 is selected from I, L, M, R, T and V; X 21 is selected from A, S, T and V; X 25 is selected from I, M, Q, S, T, V and W; X 26 is selected from K and S; X 28 is selected from F, L, M and Y; and X 29 is selected from D and R; ii) an amino acid sequence which has at least 93 % identity to the sequence defined in i).