mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a multi-cell/multicast coordination entity, MCE, in a communication system, the method comprising: receiving , from a mobile management entity, a first message for a multimedia broadcast multicast services, MBMS, session start; and transmitting , to a base station, a second message for the MBMS session start, the second message including a service area identifier, SAI, wherein the second message further includes a cell list and quality of service, QoS, information in case that a single cell point to multi point, SC-PTM, mode is to be used for transmitting MBMS data, and wherein the cell list indicates, to the base station, that the SC-PTM mode has been determined to be used for transmitting the MBMS data. receiving , from a mobile management entity, a first message for a multimedia broadcast multicast services, MBMS, session start; and transmitting , to a base station, a second message for the MBMS session start, the second message including a service area identifier, SAI, wherein the second message further includes a cell list and quality of service, QoS, information in case that a single cell point to multi point, SC-PTM, mode is to be used for transmitting MBMS data, and wherein the cell list indicates, to the base station, that the SC-PTM mode has been determined to be used for transmitting the MBMS data.
A computer implemented method, comprising: obtaining, using a processor, spectral reflectance data from a target coating at a plurality of individual reflection angles, wherein the spectral reflectance data is obtained using a spectrophotometer at selected points in space corresponding to the individual reflection angles; calculating, using the processor, pseudo-electrostatics data from the spectral reflectance data, wherein calculating the pseudo-electrostatics data comprises treating the spectral reflectance data obtained at the individual reflection angles as point charges and applying Coulomb's law, and wherein the calculation occurs individually for each wavelength; and generating based on the pseudo-electrostatics data, using the processor, a coating pigmentation that is the same or substantially similar in appearance to the target coating, wherein generating the coating pigmentation comprises empirically correlating the pseudo-electrostatics data calculated for the target coating to a plurality of known pseudo-electrostatics data calculated for an empirical dataset and predicting at least one texture feature of the target coating based on the correlating. obtaining, using a processor, spectral reflectance data from a target coating at a plurality of individual reflection angles, wherein the spectral reflectance data is obtained using a spectrophotometer at selected points in space corresponding to the individual reflection angles; calculating, using the processor, pseudo-electrostatics data from the spectral reflectance data, wherein calculating the pseudo-electrostatics data comprises treating the spectral reflectance data obtained at the individual reflection angles as point charges and applying Coulomb's law, and wherein the calculation occurs individually for each wavelength; and generating based on the pseudo-electrostatics data, using the processor, a coating pigmentation that is the same or substantially similar in appearance to the target coating,
A fire proof panel for securement to a fibreglass or plastic body structure such as, for example, a boat, wherein the panel comprises a layer of sponge material impregnated with water based intumescent material, one side of the sponge having adhered thereon a fire-resistant sheet of paper or cloth coated in an intumescent coating, characterized in that the paper or cloth has adhered thereon a glass impregnated graphite cloth coated with a water and oil proof anti-static coating .
A system for replacing a native heart valve , comprising: a helical anchor formed as multiple coils , the helical anchor adapted to support a heart valve prosthesis with coil portions positioned above and below a heart valve annulus of the native heart valve , the helical anchor having a central axis; and characterised in that the helical anchor has a seal coupled with the helical anchor configured to prevent blood leakage through the helical anchor and past the heart valve prosthesis , wherein the seal is formed as (i) a membrane or panel configured to extend from one of the multiple coils to at least another one of the multiple coils of the helical anchor in a direction of the central axis when the helical anchor is implanted at a native heart valve site or (ii) one or more seal elements carried by the helical anchor and including portions overlapping in the direction of the central axis so as to seal a space between adjacent coils of the helical anchor when the helical anchor is implanted at a native heart valve site. a helical anchor formed as multiple coils , the helical anchor adapted to support a heart valve prosthesis with coil portions positioned above and below a heart valve annulus of the native heart valve , the helical anchor having a central axis; and characterised in that the helical anchor has a seal coupled with the helical anchor configured to prevent blood leakage through the helical anchor and past the heart valve prosthesis , wherein the seal is formed as (i) a membrane or panel configured to extend from one of the multiple coils to at least another one of the multiple coils of the helical anchor in a direction of the central axis when the helical anchor is implanted at a native heart valve site or (ii) one or more seal elements carried by the helical anchor and including portions overlapping in the direction of the central axis so as to seal a space between adjacent coils of the helical anchor when the helical anchor is implanted at a native heart valve site. (i) a membrane or panel configured to extend from one of the multiple coils to at least another one of the multiple coils of the helical anchor in a direction of the central axis when the helical anchor is implanted at a native heart valve site or (ii) one or more seal elements carried by the helical anchor and including portions overlapping in the direction of the central axis so as to seal a space between adjacent coils of the helical anchor when the helical anchor is implanted at a native heart valve site.
A tapered roller bearing comprising: an inner ring and an outer ring ; and a plurality of tapered rollers rollably disposed between the inner ring and the outer ring, characterised in that surface roughness of at least a rolling surface and a large diameter-side end surface of each of the tapered rollers is 0.02 to 0.17 μm in reduced peak height Rpk 0.12 to 0.21 μm in core roughness depth Rk, and 0.07 to 0.43 μm in reduced valley depth Rvk and an average recessed portion area in fine irregularities on a surface of the tapered roller is 5 μm 2 or less, wherein an aspect ratio Str of a surface texture of each of the tapered rollers is 0.2 or more. an inner ring and an outer ring ; and a plurality of tapered rollers rollably disposed between the inner ring and the outer ring, characterised in that surface roughness of at least a rolling surface and a large diameter-side end surface of each of the tapered rollers is 0.02 to 0.17 μm in reduced peak height Rpk 0.12 to 0.21 μm in core roughness depth Rk, and 0.07 to 0.43 μm in reduced valley depth Rvk and an average recessed portion area in fine irregularities on a surface of the tapered roller is 5 μm 2 or less, wherein an aspect ratio Str of a surface texture of each of the tapered rollers is 0.2 or more.
An acetohydroxy acid synthase variant, wherein, in the acetohydroxy acid synthase large subunit (acetolactate synthase large subunit; IlvB protein) having a sequence identity of at least 70% to the amino acid sequence of SEQ ID NO: 1, the amino acid corresponding to the 96 th amino acid (threonine) of an amino acid sequence of SEQ ID NO: 1 is substituted with an amino acid other than threonine, the amino acid corresponding to the 503 rd amino acid (tryptophan) of an amino acid sequence of SEQ ID NO: 1 is substituted with an amino acid other than tryptophan, or both amino acids corresponding to the 96 th amino acid (threonine) and the 503 rd amino acid (tryptophan) of an amino acid sequence of SEQ ID NO: 1 are substituted with another amino acid.
A urinary catheter having a hydrophilic coating, comprising: a catheter shaft having an outer surface; and a hydrophilic coating disposed on the outer surface of the catheter shaft, the hydrophilic coating comprising a hydrophilic polymer matrix having voids and microparticles including a lubricating liquid and a gelling agent comprising a polysaccharide located in the voids of the hydrophilic polymer matrix. a catheter shaft having an outer surface; and a hydrophilic coating disposed on the outer surface of the catheter shaft, the hydrophilic coating comprising a hydrophilic polymer matrix having voids and microparticles including a lubricating liquid and a gelling agent comprising a polysaccharide located in the voids of the hydrophilic polymer matrix.
Sealing element having a u-shaped split ring for sealing a rotating component in relation to a fixed-location casing , wherein there is a hydrodynamic throttle gap between the rotating component and the casing , said throttle gap belonging to a flow machine for liquid delivery media and having the u-shaped split ring provided in it, wherein an enclosed annular space filled with the liquid delivery medium is formed by the u-shaped split ring on a surface which belongs to the fixed-location casing and delimits the throttle gap of the flow machine radially, wherein the annular space is oriented such that it is concentrically aligned radially with the rotating component , wherein the annular space is enclosed by means of the u-shaped split ring , wherein an axial gap is formed between the u-shaped split ring and the fixed-location casing and a radial gap is formed between the u-shaped split ring and the annular space , characterized in that the fit of the axial throttle gap is adjustable such that the annular space filled with the delivery medium is formed between the u-shaped split ring and the radially delimiting surface on the fixed-location casing , wherein the annular space is oriented such that it is aligned radially concentrically with the rotating component so as to produce a radial inner delimitation of the throttle gap .
A resin composition comprising a cycloolefin resin and at least two hydrogenated styrene-based thermoplastic elastomers, wherein a content of the cycloolefin resin is 50 to 90 wt% based on a total amount of the cycloolefin resin and the hydrogenated styrene-based thermoplastic elastomers, a melt volume rate, measured at a temperature of 260°C and at a load of 21.18 N in accordance with JIS K7210, of the resin composition at 260°C is higher than that of the cycloolefin resin at 260°C, and both weight average molecular weights of the hydrogenated styrene-based thermoplastic elastomers are 40,000 g/mol or less, determined by gel permeation chromatography. wherein a content of the cycloolefin resin is 50 to 90 wt% based on a total amount of the cycloolefin resin and the hydrogenated styrene-based thermoplastic elastomers, a melt volume rate, measured at a temperature of 260°C and at a load of 21.18 N in accordance with JIS K7210, of the resin composition at 260°C is higher than that of the cycloolefin resin at 260°C, and both weight average molecular weights of the hydrogenated styrene-based thermoplastic elastomers are 40,000 g/mol or less, determined by gel permeation chromatography.
Use of nonionic, water-soluble cellulose ethers with 3-azido-2-hydroxypropyl groups, joined to the cellulose via an ether bond, the degree of molar substitution MSAHP being in the range from 0.001 to 0.30, and the cellulose ethers being reacted with alkynes or dialkynes, catalyzed by a copper compound or ruthenium compound, for producing water-insoluble, secure adhesive bonds.
A power tool comprising: a brushless motor ; an inverter circuit configured to energize the brushless motor ; a control unit configured to control the inverter circuit ; a switch configured to switch between application and cutoff of a voltage input to the inverter circuit ; and a rectifying circuit configured to convert alternating electricity into direct electricity and to supply the direct electricity to the inverter circuit , wherein the control unit is configured to perform a brake control of applying a braking force to the brushless motor when the switch is turned off, and characterised in that the switch is provided on an input side of the rectifying circuit , and the brake control is a control of causing a current to flow to the rectifying circuit . a brushless motor ; an inverter circuit configured to energize the brushless motor ; a control unit configured to control the inverter circuit ; a switch configured to switch between application and cutoff of a voltage input to the inverter circuit ; and a rectifying circuit configured to convert alternating electricity into direct electricity and to supply the direct electricity to the inverter circuit , wherein the control unit is configured to perform a brake control of applying a braking force to the brushless motor when the switch is turned off, and characterised in that the switch is provided on an input side of the rectifying circuit , and the brake control is a control of causing a current to flow to the rectifying circuit .
An in vitro method for identifying a type 1 diabetic patient as responder or non-responder to a treatment of Proinsulin or insulin, and Interleukin 10 and a CD3 antagonist, comprising the steps of: a) determining the expression level of at least 1 microRNA, selected from the group consisting of miR-365, miR-34a, miR-193b and miR-125a, in a sample from the diabetic patient prior to said treatment, b) comparing the expression level as determined in (a) with a control, c) determining from said comparison, whether said patient is a responder or non-responder to said therapy. a) determining the expression level of at least 1 microRNA, selected from the group consisting of miR-365, miR-34a, miR-193b and miR-125a, in a sample from the diabetic patient prior to said treatment, b) comparing the expression level as determined in (a) with a control, c) determining from said comparison, whether said patient is a responder or non-responder to said therapy.
Method of vulcanizing a green tire , having the following steps: a) placing a green tire to be vulcanized in a vulcanization mold, b) evaluating the temperature progression from the temperature sensor disposed in the cavity of the inner heater, wherein the temperature progression can be used to ascertain an idle time of the vulcanization press, c) calculating an adjustment in the duration for the steam phase of the inner heater when the idle time varies from a defined threshold, d) introducing steam into the inner heater of the vulcanization press and performing the steam phase for the calculated duration, wherein the adjustment of the duration for the steam phase is intended to ensure an optimal input of thermal energy for the vulcanization of the green tire , e) measuring the actual temperature progression with the temperature sensor in the inner heater, f) comparing the actual temperature progression with a target temperature progression for a particular vehicle tire type, g) adjusting the duration for the flexible heating phase of the inner heater, wherein the adjustment of the duration for the heating phase is intended to ensure an optimal input of thermal energy for the vulcanization of the green tire , h) completing the tire vulcanization. a) placing a green tire to be vulcanized in a vulcanization mold, b) evaluating the temperature progression from the temperature sensor disposed in the cavity of the inner heater, wherein the temperature progression can be used to ascertain an idle time of the vulcanization press, c) calculating an adjustment in the duration for the steam phase of the inner heater when the idle time varies from a defined threshold, d) introducing steam into the inner heater of the vulcanization press and performing the steam phase for the calculated duration, wherein the adjustment of the duration for the steam phase is intended to ensure an optimal input of thermal energy for the vulcanization of the green tire , e) measuring the actual temperature progression with the temperature sensor in the inner heater, f) comparing the actual temperature progression with a target temperature progression for a particular vehicle tire type, g) adjusting the duration for the flexible heating phase of the inner heater, wherein the adjustment of the duration for the heating phase is intended to ensure an optimal input of thermal energy for the vulcanization of the green tire , h) completing the tire vulcanization.
A method for resource allocation between a first network node configured to use a first radio access technology, RAT, and a second network node configured to use a second RAT, wherein the second RAT is different from the first RAT and the first RAT and the second RAT are deployed in an overlapping spectrum, the method in the first network node including: determining , by the first network node , one or more resources of a plurality of resources, for use by the second network node , wherein the plurality of resources is represented by a bit string whose length corresponds to a total number of Physical Resource blocks, PRBs, in the plurality of resources, wherein each bit in the bit string corresponds to a respective PRB in increasing order of frequency; and transmitting , to the second network node , a message including the bit string in which the one or more resources for use by the second network node are indicated, wherein the method further comprises: receiving, by the first network node , a request from the second network node , and transmitting the message in response to the request, wherein the request indicates a desired amount of resources, the one or more resources determined for use by the second network node comprising the desired amount of resources, or wherein the request indicates the one or more resources. determining , by the first network node , one or more resources of a plurality of resources, for use by the second network node , wherein the plurality of resources is represented by a bit string whose length corresponds to a total number of Physical Resource blocks, PRBs, in the plurality of resources, wherein each bit in the bit string corresponds to a respective PRB in increasing order of frequency; and transmitting , to the second network node , a message including the bit string in which the one or more resources for use by the second network node are indicated, wherein the method further comprises: receiving, by the first network node , a request from the second network node , and transmitting the message in response to the request, wherein the request indicates a desired amount of resources, the one or more resources determined for use by the second network node comprising the desired amount of resources, or wherein the request indicates the one or more resources. receiving, by the first network node , a request from the second network node , and transmitting the message in response to the request, wherein the request indicates a desired amount of resources, the one or more resources determined for use by the second network node comprising the desired amount of resources, or wherein the request indicates the one or more resources.
A congestion measurement method, wherein the method is performed in a communication system comprising a first network node and a second network node, is applied to the first network node, and comprises: receiving a first delimitation packet, wherein the first delimitation packet comprises a first identifier, and the first identifier is used to indicate a moment at which the second network node sends the first delimitation packet; collecting , based on the first delimitation packet, statistics about a congestion status of the first network node by using a first time interval as a periodicity, wherein the first time interval is a time interval at which the second network node sends two neighboring delimitation packets; and sending a first-type statistics packet to the second network node by using the first time interval as a periodicity, wherein the first-type statistics packet comprises the first identifier, and the first-type statistics packet is used to indicate the congestion status of the first network node in the first time interval. receiving a first delimitation packet, wherein the first delimitation packet comprises a first identifier, and the first identifier is used to indicate a moment at which the second network node sends the first delimitation packet; collecting , based on the first delimitation packet, statistics about a congestion status of the first network node by using a first time interval as a periodicity, wherein the first time interval is a time interval at which the second network node sends two neighboring delimitation packets; and sending a first-type statistics packet to the second network node by using the first time interval as a periodicity, wherein the first-type statistics packet comprises the first identifier, and the first-type statistics packet is used to indicate the congestion status of the first network node in the first time interval.
A microscope for examining a sample , the microscope comprising a microscope stage for receiving the sample to be examined and further comprising a microscope housing enclosing the microscope stage , wherein the microscope housing comprises an opening and a hinged door , wherein the opening is closable by the hinged door , wherein the hinged door is configured to be pivoted down in an opened state to form a horizontal work surface , wherein, in the opened state, an inner surface of the hinged door is configured as the work surface and wherein the hinged door , in a closed state, forms at least a part of the microscope housing , characterized in that the microscope housing comprises a second door arranged in the opening of the microscope housing , wherein, in the opened state, the hinged door provides access to the microscope stage through the second door . wherein the microscope housing comprises an opening and a hinged door , wherein the opening is closable by the hinged door , wherein the hinged door is configured to be pivoted down in an opened state to form a horizontal work surface , wherein, in the opened state, an inner surface of the hinged door is configured as the work surface and wherein the hinged door , in a closed state, forms at least a part of the microscope housing , characterized in that the microscope housing comprises a second door arranged in the opening of the microscope housing , wherein, in the opened state, the hinged door provides access to the microscope stage through the second door .