mhurhangee/ep-ind-claims huggingface dataset:
An isolated protein comprising a moiety of 90-200 amino acid residues having at least 70% identity to SEQ ID NO: 7, wherein the amino acid residue corresponding to position 221 in SEQ ID NO: 1 is selected from the group consisting of Glu and Asp.
An ultrasound image processing apparatus comprising a processor arrangement (42, 50) adapted to: receive a temporal sequence of ultrasound images of at least a chest region of a fetal entity from an ultrasound probe, said chest region including the fetal heart, said temporal sequence capturing at least part of a cardiac cycle of the fetal heart; identify the chest region of the fetal entity in one or more of the ultrasound images of said temporal sequence; identify a portion of the spine of said fetal entity in the identified chest region; calculate an orientation axis of the fetal chest from the identified chest region and the identified spine portion; identify the septum of the fetal heart as a linear structure that is temporally more stable than its surrounding structures in said temporal sequence of ultrasound images and that defines a region of convergence of the movements of the fetal heart during said cardiac cycle; calculate an orientation axis of the fetal heart from the identified septum; and calculate an angle (θ) between the orientation axis of the fetal chest and the orientation axis of the fetal heart. receive a temporal sequence of ultrasound images of at least a chest region of a fetal entity from an ultrasound probe, said chest region including the fetal heart, said temporal sequence capturing at least part of a cardiac cycle of the fetal heart; identify the chest region of the fetal entity in one or more of the ultrasound images of said temporal sequence; identify a portion of the spine of said fetal entity in the identified chest region; calculate an orientation axis of the fetal chest from the identified chest region and the identified spine portion; identify a portion of the spine of said fetal entity in the identified chest region; calculate an orientation axis of the fetal chest from the identified chest region and the identified spine portion; identify the septum of the fetal heart as a linear structure that is temporally more stable than its surrounding structures in said temporal sequence of ultrasound images and that defines a region of convergence of the movements of the fetal heart during said cardiac cycle; calculate an orientation axis of the fetal heart from the identified septum; and calculate an angle (θ) between the orientation axis of the fetal chest and the orientation axis of the fetal heart.
A detergent formulation for dishwashing machine, wherein the formulation having the means for improving tableware or dishware cleaning, sanitizing, and/or stain removal, the said formulation is characterized in that it comprises: a. Nonionic surfactant, which is alkyl polyglucoside having a working concentration between 5% and 10%, b. Dispersing agent, which is sodium polyacrylate having a working concentration between 2% and 5%, c. Builder agent, which is sodium or potassium carbonate and wherein the builder agent has a working concentration between 3% and 10%, d. Enzyme stabilizer, which is glycine and wherein the enzyme stabilizer having a working concentration between 7% and 20%, e. Enzyme, which is purified thermostable T1 lipase enzyme from Geobacillus zalihae, having a working concentration between 3% and 10%. f. Filler selected from sodium or potassium sulfate and having a working concentration between 20% and 50%, or water a. Nonionic surfactant, which is alkyl polyglucoside having a working concentration between 5% and 10%, b. Dispersing agent, which is sodium polyacrylate having a working concentration between 2% and 5%, c. Builder agent, which is sodium or potassium carbonate and wherein the builder agent has a working concentration between 3% and 10%, d. Enzyme stabilizer, which is glycine and wherein the enzyme stabilizer having a working concentration between 7% and 20%, e. Enzyme, which is purified thermostable T1 lipase enzyme from Geobacillus zalihae, having a working concentration between 3% and 10%. f. Filler selected from sodium or potassium sulfate and having a working concentration between 20% and 50%, or water
An applicator mitt having a mitt body having a mitt-shaped perimeter and a mitt opening for receiving a hand, the mitt body comprising first and second layers (74, 76), wherein the first layer is formed from a porous applicator material such as foam or sponge, and characterised in that one of the first and second layers (74, 76) has a thermoweldable layer thereon at an interface between the first and second layers (74, 76), the first and second layers (74, 76) being welded to one another via heating of the thermoweldable layer at the mitt-shaped perimeter of the first layer only, the perimeter having a bevelled or chamfered edge profile.
A data transmission method, comprising: receiving, by a radio transceiver, information related to indicate capability category of a user equipment,UE, from a radio network controller, wherein the information related to indicate the capability category of the UE is contained in a high speed downlink shared channel, HS-DSCH, data frame, and an information element of the HS-DSCH data frame indicates the capability category of the UE; and performing, by the radio transceiver, data transmission to or from the UE according to the capability category of the UE; wherein the data transmission method is used in an enhanced cell forward access channel state. receiving, by a radio transceiver, information related to indicate capability category of a user equipment,UE, from a radio network controller, wherein the information related to indicate the capability category of the UE is contained in a high speed downlink shared channel, HS-DSCH, data frame, and an information element of the HS-DSCH data frame indicates the capability category of the UE; and performing, by the radio transceiver, data transmission to or from the UE according to the capability category of the UE; wherein the data transmission method is used in an enhanced cell forward access channel state.
A method for wireless communications, comprising: determining a portion of a shared spectrum for at least one of sending or receiving a transmission; and transmitting a plurality of channel reservation signals associated with a plurality of beams to reserve the portion of the shared spectrum, wherein a first channel reservation signal is transmitted using a first beam and, in addition to the first channel reservation signal using the first beam, multiple channel reservation signals are transmitted using multiple different directional beams in the neighborhood of the first beam. determining a portion of a shared spectrum for at least one of sending or receiving a transmission; and transmitting a plurality of channel reservation signals associated with a plurality of beams to reserve the portion of the shared spectrum, wherein a first channel reservation signal is transmitted using a first beam and, in addition to the first channel reservation signal using the first beam, multiple channel reservation signals are transmitted using multiple different directional beams in the neighborhood of the first beam.
A method for determining the electrical resistance (Rsh) of a conducting or semi-conducting layer, called a "target layer", the target layer being covered with an insulating superficial layer, the method using a multiple point measurement (1, 2, 3, 4, 5, 6, 7, 8), the method including the following steps of: - (a) disposing a set of points (1, 2, 3, 4, 5, 6, 7, 8) at the surface of the superficial layer, the set of points including at least four points; - (b) making an electrical contact between each point (1, 2, 3, 4, 5, 6, 7, 8) of the set of points and the conducting layer through at least two electrical breakdowns, each electrical breakdown being made by applying a potential difference (U + -U -) between two points of the set of points; - (c) applying a current between one point of the set of points called an "input point" (I +), and a point of the set of points called an "output point" (I -); - (d) measuring a potential difference (V + -V -) between two of the points of the set of points between which the current has not been applied during step (c); - (e) calculating a layer resistance (R sh) from the value of the applied current (I +) and the measured potential difference (V + -V -). - (a) disposing a set of points (1, 2, 3, 4, 5, 6, 7, 8) at the surface of the superficial layer, the set of points including at least four points; - (b) making an electrical contact between each point (1, 2, 3, 4, 5, 6, 7, 8) of the set of points and the conducting layer through at least two electrical breakdowns, each electrical breakdown being made by applying a potential difference (U + -U -) between two points of the set of points; - (c) applying a current between one point of the set of points called an "input point" (I +), and a point of the set of points called an "output point" (I -); - (d) measuring a potential difference (V + -V -) between two of the points of the set of points between which the current has not been applied during step (c); - (e) calculating a layer resistance (R sh) from the value of the applied current (I +) and the measured potential difference (V + -V -).
A system-on-chip, SoC comprising: an intellectual property, IP block including at least one IP subsystem, the one IP block including a configuration and status register, CSR set associated with the at least one IP subsystem; an asynchronous bridge operatively coupled between the CSR set and an application processor; and a clock manager operatively coupled to the asynchronous bridge, the IP block, and the CSR set, the clock manager configured to: generate a first clock signal; provide the first clock signal to the IP block to enable communication between the at least one IP subsystem and the application processor; generate a second clock signal, the second clock signal having a derived clock rate that is an integer division slower or an integer multiplication faster than a clock rate of the first clock signal and capable of being selectively gated independent of the first clock signal; and provide the second clock signal to the CSR set and the asynchronous bridge to enable communication between the application processor and the CSR set at the derived clock rate. an intellectual property, IP block including at least one IP subsystem, the one IP block including a configuration and status register, CSR set associated with the at least one IP subsystem; an asynchronous bridge operatively coupled between the CSR set and an application processor; and a clock manager operatively coupled to the asynchronous bridge, the IP block, and the CSR set, the clock manager configured to: generate a first clock signal; provide the first clock signal to the IP block to enable communication between the at least one IP subsystem and the application processor; generate a second clock signal, the second clock signal having a derived clock rate that is an integer division slower or an integer multiplication faster than a clock rate of the first clock signal and capable of being selectively gated independent of the first clock signal; and provide the second clock signal to the CSR set and the asynchronous bridge to enable communication between the application processor and the CSR set at the derived clock rate. generate a first clock signal; provide the first clock signal to the IP block to enable communication between the at least one IP subsystem and the application processor; generate a second clock signal, the second clock signal having a derived clock rate that is an integer division slower or an integer multiplication faster than a clock rate of the first clock signal and capable of being selectively gated independent of the first clock signal; and provide the second clock signal to the CSR set and the asynchronous bridge to enable communication between the application processor and the CSR set at the derived clock rate.
A liquid level sensor for a fuel tank in an aircraft, the liquid level sensor comprising an inner capacitor tube, an outer capacitor tube and a probe foot suitable for placing the liquid level sensor on a bottom surface (20.1) of the fuel tank, the inner and outer capacitor tubes respectively extending upwardly relative to the probe foot from an inner capacitor tube base (2.1) and an outer capacitor tube base (3.1) in such a way a that a capacitor region arranged to hold a liquid is defined between the outer capacitor tube and the inner capacitor tube, the inner capacitor tube being located at the inside of the outer capacitor tube, wherein an insulating minimum distance (id) along an elevation direction of the liquid [eve] sensor is left between the inner capacitor tube base (2.1) and the probe foot, the capacitor region and the probe foot being thereby separated by such insulating minimum distance (id), the insulating minimum distance (id) being sufficient to prevent a droplet of water on the probe foot from making contact with the inner capacitor tube, characterized in that the inner capacitor tube base (2.1) completely closes the inner capacitor tube at an end in such a way that an inner capacitor tube trap is defined at the inside of the inner capacitor tube between the inner capacitor tube base (2.1) and the at least one draining hole (2.2) on the inner capacitor tube, the inner capacitor tube trap being filled with a filling material for keeping liquids and particles from being retained therein.
A tire steel cord having a layer-twisted structure comprising: a core composed of two core filaments; and a sheath composed of eight sheath filaments that are twisted together around the core, wherein the two core filaments constituting the core are twisted together, the twisting direction of the core filaments and that of the sheath filaments are different, and a diameter (Dc) of the core filaments and a diameter (Ds) of the sheath filaments satisfy a relationship represented by the following Equation: 0.90 ≤ Ds / Dc ≤ 1.10 characterised in that: the core filaments have a circular cross section and wherein the twisting pitch of the sheath filaments is 9 to 30 mm. a core composed of two core filaments; and a sheath composed of eight sheath filaments that are twisted together around the core, wherein the two core filaments constituting the core are twisted together, the twisting direction of the core filaments and that of the sheath filaments are different, and a diameter (Dc) of the core filaments and a diameter (Ds) of the sheath filaments satisfy a relationship represented by the following Equation: 0.90 ≤ Ds / Dc ≤ 1.10 characterised in that: the core filaments have a circular cross section and wherein the twisting pitch of the sheath filaments is 9 to 30 mm.
An apparatus for irradiating fluids with UV comprising: a reactor vessel having a fluid inlet, a fluid outlet and a reaction chamber; a plurality of UV lamps (18a, 18b, 18c, 18d, 18e 18f) extending across the reaction chamber and substantially perpendicularly to an axis extending between the fluid inlet and the fluid outlet; and upper and lower fluid diverters (22, 24) extending across the reaction chamber substantially parallel to said plurality of UV lamps (18a, 18b, 18c, 18d, 18e, 18f) and positioned downstream of at least one upstream UV lamp (18a, 18b) of said plurality of UV lamps, wherein the upper and lower fluid diverters (22, 24) are positioned to direct fluids toward at least one UV lamp (18c, 18d, 18e, 18f) of said plurality of UV lamps downstream of the at least one upstream UV lamp (18a, 18b); characterized in that: the reaction chamber has a cross-section that is substantially round or oval in shape; and said lower fluid diverter is positioned below said plurality of UV lamps (18a, 18b, 18c, 18d, 18e, 18f). a reactor vessel having a fluid inlet, a fluid outlet and a reaction chamber; a plurality of UV lamps (18a, 18b, 18c, 18d, 18e 18f) extending across the reaction chamber and substantially perpendicularly to an axis extending between the fluid inlet and the fluid outlet; and upper and lower fluid diverters (22, 24) extending across the reaction chamber substantially parallel to said plurality of UV lamps (18a, 18b, 18c, 18d, 18e, 18f) and positioned downstream of at least one upstream UV lamp (18a, 18b) of said plurality of UV lamps, wherein the upper and lower fluid diverters (22, 24) are positioned to direct fluids toward at least one UV lamp (18c, 18d, 18e, 18f) of said plurality of UV lamps downstream of the at least one upstream UV lamp (18a, 18b); characterized in that: the reaction chamber has a cross-section that is substantially round or oval in shape; and said lower fluid diverter is positioned below said plurality of UV lamps (18a, 18b, 18c, 18d, 18e, 18f). the reaction chamber has a cross-section that is substantially round or oval in shape; and said lower fluid diverter is positioned below said plurality of UV lamps (18a, 18b, 18c, 18d, 18e, 18f).
A system comprising: a hollow needle (120, 520), wherein the hollow needle comprises a channel, and wherein the hollow needle comprises a first end that is configured to penetrate skin; a reservoir (150, 550), wherein the reservoir contains a payload; an injector, wherein the injector is configured to drive the hollow needle into the skin to form a puncture in the skin, wherein the injector is further configured to deliver the payload from the reservoir into the skin via the channel and to retract the hollow needle from the skin subsequent to driving the hollow needle into the skin; and a suction source configured to provide suction, wherein the suction provided by the suction source is configured to draw blood from the puncture formed in the skin into the system, characterised in that: the injector comprises: a chamber, wherein the hollow needle is disposed at least partially within the chamber; and a piston (130, 530) disposed in the chamber, wherein the hollow needle is coupled to the piston, wherein the piston comprises the reservoir, and wherein the piston is configured to slidably move within the chamber. a hollow needle (120, 520), wherein the hollow needle comprises a channel, and wherein the hollow needle comprises a first end that is configured to penetrate skin; a reservoir (150, 550), wherein the reservoir contains a payload; an injector, wherein the injector is configured to drive the hollow needle into the skin to form a puncture in the skin, wherein the injector is further configured to deliver the payload from the reservoir into the skin via the channel and to retract the hollow needle from the skin subsequent to driving the hollow needle into the skin; and a suction source configured to provide suction, wherein the suction provided by the suction source is configured to draw blood from the puncture formed in the skin into the system, characterised in that: the injector comprises: a chamber, wherein the hollow needle is disposed at least partially within the chamber; and a piston (130, 530) disposed in the chamber, wherein the hollow needle is coupled to the piston, wherein the piston comprises the reservoir, and wherein the piston is configured to slidably move within the chamber. a chamber, wherein the hollow needle is disposed at least partially within the chamber; and a piston (130, 530) disposed in the chamber, wherein the hollow needle is coupled to the piston, wherein the piston comprises the reservoir, and wherein the piston is configured to slidably move within the chamber.
Method for producing an arrangement which comprises: a hose which comprises an outer cover and an inner liner, and a hose fitting which is connected to an end region of the hose such that the inner liner lines the inside of the hose fitting, said method comprising the steps of: a) providing the hose having the outer cover and the inner liner, the two of which form a rigid bond produced by co-extrusion, and a suitable hose fitting, b) releasing the rigid bond between the outer cover and the inner liner of the hose, in an end region of the hose, at a length which corresponds to the sum of the intended lengths for the first and second end portions (5, 6) of the hose, c) exposing the inner liner by removing the outer cover and inserts, which may be present between the outer cover and the inner liner, in order to produce the second end portion of the hose, in which the inner liner is exposed, d) attaching the hose fitting in such a way that the connecting piece is inserted into the space formed in the first end portion of the hose, e) integrally moulding the inner liner to the flange face, which faces in the axial direction, of the hose fitting. a hose which comprises an outer cover and an inner liner, and a hose fitting which is connected to an end region of the hose such that the inner liner lines the inside of the hose fitting, said method comprising the steps of: a) providing the hose having the outer cover and the inner liner, the two of which form a rigid bond produced by co-extrusion, and a suitable hose fitting, b) releasing the rigid bond between the outer cover and the inner liner of the hose, in an end region of the hose, at a length which corresponds to the sum of the intended lengths for the first and second end portions (5, 6) of the hose, c) exposing the inner liner by removing the outer cover and inserts, which may be present between the outer cover and the inner liner, in order to produce the second end portion of the hose, in which the inner liner is exposed, d) attaching the hose fitting in such a way that the connecting piece is inserted into the space formed in the first end portion of the hose, e) integrally moulding the inner liner to the flange face, which faces in the axial direction, of the hose fitting. a) providing the hose having the outer cover and the inner liner, the two of which form a rigid bond produced by co-extrusion, and a suitable hose fitting, b) releasing the rigid bond between the outer cover and the inner liner of the hose, in an end region of the hose, at a length which corresponds to the sum of the intended lengths for the first and second end portions (5, 6) of the hose, c) exposing the inner liner by removing the outer cover and inserts, which may be present between the outer cover and the inner liner, in order to produce the second end portion of the hose, in which the inner liner is exposed, d) attaching the hose fitting in such a way that the connecting piece is inserted into the space formed in the first end portion of the hose, e) integrally moulding the inner liner to the flange face, which faces in the axial direction, of the hose fitting.
A driving system for the drive wheels of a motor vehicle, said system comprising a casing and two electric motors fixed respectively to a side wall of the casing, said system further comprising two pinions - respectively right and left - which are mounted in said casing to be independent in rotation, said pinions being secured in rotation to a rotor of respectively a motor to be each rotated by a rotor, said system further comprising two toothed wheels - respectively - right and left - which are mounted in said casing to be rotated by respectively a pinion, each toothed wheel being secured in rotation to a connecting means with the driving wheel, the casing having a central crosspiece and said system being characterised in that a primary shaft is mounted in a bore, with which the central crosspiece is provided, the pinions being rotatably mounted respectively on an end portion of said shaft, and in that the side walls of the casing have orifices for mounting the pinions in the casing, the diameter of said orifices being greater than that of the pinions and the motors comprising a front cover covering said orifices during their attachment to said side walls.
A mouthwash, mouthrinse, or other oral liquid composition comprising a phosphopeptide-stabilized amorphous calcium phosphate or phosphopeptide-stabilized amorphous calcium fluoride phosphate (ACFP) and free fluoride ions, wherein the composition does not contain a calcium chelator nor a phosphate buffer, and wherein said phosphopeptide is a casein phosphopeptide.