mhurhangee/ep-ind-claims huggingface dataset:
A two-stroke engine comprising: - a crankcase, - a cylinder with a crank chamber formed inside said crankcase, and - a scavenging passage structure having a scavenging passage (4a, 4b) communicating a scavenging port provided in the cylinder, said scavenging passage (4a, 4b) being formed to extend through respective fastening surfaces of said cylinder and said crankcase, wherein the crankcase is made up of a front crankcase and a rear crankcase that are front and back parts divided at a front and back split surface orthogonal to a crankshaft axis, characterized in that the scavenging passage structure further has: a cover member attached inside each of the front crankcase and the rear crankcase so as to be in contact with an inner wall surface of the crankcase from the side of the front and back split surface; and a groove (21, 21a, 21b, 21c) formed in a contact surface between said inner wall surface of the crankcase and said cover member, and forming part of said scavenging passage (4a, 4b) connecting to said crank chamber and to an upper face of the crankcase. - a crankcase, - a cylinder with a crank chamber formed inside said crankcase, and - a scavenging passage structure having a scavenging passage (4a, 4b) communicating a scavenging port provided in the cylinder, said scavenging passage (4a, 4b) being formed to extend through respective fastening surfaces of said cylinder and said crankcase, wherein the crankcase is made up of a front crankcase and a rear crankcase that are front and back parts divided at a front and back split surface orthogonal to a crankshaft axis, characterized in that the scavenging passage structure further has: a cover member attached inside each of the front crankcase and the rear crankcase so as to be in contact with an inner wall surface of the crankcase from the side of the front and back split surface; and a groove (21, 21a, 21b, 21c) formed in a contact surface between said inner wall surface of the crankcase and said cover member, and forming part of said scavenging passage (4a, 4b) connecting to said crank chamber and to an upper face of the crankcase. a cover member attached inside each of the front crankcase and the rear crankcase so as to be in contact with an inner wall surface of the crankcase from the side of the front and back split surface; and a groove (21, 21a, 21b, 21c) formed in a contact surface between said inner wall surface of the crankcase and said cover member, and forming part of said scavenging passage (4a, 4b) connecting to said crank chamber and to an upper face of the crankcase.
A cloning vector comprising an ihc1 gene promoter of a yeast of the genus Schizosaccharomyces represented by the nucleotide sequence of SEQ ID NO: 9 or a nucleotide sequence having at least 80% sequence identity to SEQ ID NO: 9 and having promoter activity, a cloning site for introducing a foreign structural gene which is located downstream from the promoter and is governed by the promoter, and a terminator capable of functioning in the yeast of the genus Schizosaccharomyces. the nucleotide sequence of SEQ ID NO: 9 or a nucleotide sequence having at least 80% sequence identity to SEQ ID NO: 9 and having promoter activity,
A pearl pigment comprising a flaky powder coated on the surface with a colored metal or a colored metal oxide, wherein when the pearl pigment is applied onto the surface of black artificial leather in an average amount of 0.05 mg/cm 2 and the intensity of light reflected from the pearl pigment is measured using illuminant C at a 2° viewing angle with a spectrophotometric colorimeter which is provided with a sheet polarizer S on the light incident side and a sheet polarizer P on the light receiving side, the reflection light of the pigment which is incident to the pearl pigment as a measurement sample at an angle of 45° to the direction normal to the surface of the sample and is received in the direction normal to the surface of the sample has absolute values a* and b* of 5 or less, and wherein the average surface roughness of the coating is 10 nm or less, wherein the flaky powder is mica, sericite, talc, kaolin, smectite clay mineral, synthetic mica, synthetic sericite, platelet-shaped titanium dioxide, platelet-shaped silica, platelet-shaped aluminium oxide, boron nitride, barium sulfate or platelet-shaped titania-silica composite oxide, wherein the colored metal is gold or copper and wherein the colored metal oxide is iron oxide, lower titanium oxide, copper oxide, cobalt oxide, chromium oxide or nickel oxide. wherein when the pearl pigment is applied onto the surface of black artificial leather in an average amount of 0.05 mg/cm 2 and the intensity of light reflected from the pearl pigment is measured using illuminant C at a 2° viewing angle with a spectrophotometric colorimeter which is provided with a sheet polarizer S on the light incident side and a sheet polarizer P on the light receiving side, the reflection light of the pigment which is incident to the pearl pigment as a measurement sample at an angle of 45° to the direction normal to the surface of the sample and is received in the direction normal to the surface of the sample has absolute values a* and b* of 5 or less, and wherein the average surface roughness of the coating is 10 nm or less, wherein the flaky powder is mica, sericite, talc, kaolin, smectite clay mineral, synthetic mica, synthetic sericite, platelet-shaped titanium dioxide, platelet-shaped silica, platelet-shaped aluminium oxide, boron nitride, barium sulfate or platelet-shaped titania-silica composite oxide, wherein the colored metal is gold or copper and wherein the colored metal oxide is iron oxide, lower titanium oxide, copper oxide, cobalt oxide, chromium oxide or nickel oxide.
Apparatus for coordinating energy distribution over a local energy network having at least one generator (14a; 14b) and a plurality of systems (22; 24) requiring an energy supply for operation, each system in the local network being connected to the at least one generator (14a; 14b) and/or another system (22; 24) in the network for distribution of energy there-between, the apparatus comprising: an agent (26; 28) for each respective one of the generator (14a; 14b) and systems (22; 24), the agent (26; 28) having a data store, a data processor and a data transmitter and receiver for transmission and receipt of data communication with one or more of the other agents (26; 28), characterized in that the data processor of each agent (26; 28) is programmed to recognise a predetermined communication sequence comprising a plurality of ordered data communication steps required to initiate supply of energy between the generator (14a; 14b) or system (22; 24) of said agent (26; 28) and the generator (14a; 14b) or system (22; 24) associated with another agent (26; 28), each communication sequence being assigned a future time period for which the energy supply is to be enacted.
A formed body made of steel having tensile strength of 440 MPa or more, the formed body comprising: a body portion having an open cross-sectional shape, the body portion including a top plate portion, a first vertical wall portion provided continuously to one edge portion of the top plate portion in a width direction, and a second vertical wall portion provided continuously to the other edge portion of the top plate portion in the width direction; a first flange provided continuously to an edge portion of the first vertical wall portion opposite to the top plate portion; and a second flange provided continuously to an edge portion of the second vertical wall portion opposite to the top plate portion, wherein at least one flange of the first flange and the second flange extends toward the other flange of the first flange and the second flange from the first vertical wall portion or from the second vertical wall portion, and the body portion and the at least one flange curve so as to conform to each other as viewed from a direction orthogonal to the top plate portion. a body portion having an open cross-sectional shape, the body portion including a top plate portion, a first vertical wall portion provided continuously to one edge portion of the top plate portion in a width direction, and a second vertical wall portion provided continuously to the other edge portion of the top plate portion in the width direction; a first flange provided continuously to an edge portion of the first vertical wall portion opposite to the top plate portion; and a second flange provided continuously to an edge portion of the second vertical wall portion opposite to the top plate portion, wherein at least one flange of the first flange and the second flange extends toward the other flange of the first flange and the second flange from the first vertical wall portion or from the second vertical wall portion, and the body portion and the at least one flange curve so as to conform to each other as viewed from a direction orthogonal to the top plate portion.
Process for the recovery of betaine from molasses, comprising: - a conversion step, in which the molasses is subjected to the action of a fructan-forming enzyme, to form a fructan-containing molasses (fructan-molasses); - a separation step, in which the fructan-molasses is subjected to a chromatographic separation, thereby obtaining a betaine-containing fraction, • wherein the separation step is done by means of ion-exchange chromatography wherein a cation exchange resin is used in the ion-exchange chromatographic separation, and • wherein prior to the separation step the molasses or the fructan-molasses is subjected to an ion-exchange step, whereby the amount of those cations in the molasses or the fructan-molasses that are different from the cation in which form the cation exchange resin is, is reduced by at least 90%. - a conversion step, in which the molasses is subjected to the action of a fructan-forming enzyme, to form a fructan-containing molasses (fructan-molasses); - a separation step, in which the fructan-molasses is subjected to a chromatographic separation, thereby obtaining a betaine-containing fraction, • wherein the separation step is done by means of ion-exchange chromatography wherein a cation exchange resin is used in the ion-exchange chromatographic separation, and • wherein prior to the separation step the molasses or the fructan-molasses is subjected to an ion-exchange step, whereby the amount of those cations in the molasses or the fructan-molasses that are different from the cation in which form the cation exchange resin is, is reduced by at least 90%. • wherein the separation step is done by means of ion-exchange chromatography wherein a cation exchange resin is used in the ion-exchange chromatographic separation, and • wherein prior to the separation step the molasses or the fructan-molasses is subjected to an ion-exchange step, whereby the amount of those cations in the molasses or the fructan-molasses that are different from the cation in which form the cation exchange resin is, is reduced by at least 90%.
An aerosol generating substrate element comprising: a cylindrical aerosol generating substrate comprising from about 10% to about 30% glycerine by weight; a first paper wrapper comprises opposing edges that abut each other to circumscribe the aerosol forming substrate and form a first seam line; a second paper wrapper comprises opposing edges that abut each other to circumscribe the first paper wrapper and form a second seam line; and the first seam line is offset from the second seam line and the first paper wrapper and the second paper wrapper do not extend beyond the aerosol generating substrate. a cylindrical aerosol generating substrate comprising from about 10% to about 30% glycerine by weight; a first paper wrapper comprises opposing edges that abut each other to circumscribe the aerosol forming substrate and form a first seam line; a second paper wrapper comprises opposing edges that abut each other to circumscribe the first paper wrapper and form a second seam line; and the first seam line is offset from the second seam line and the first paper wrapper and the second paper wrapper do not extend beyond the aerosol generating substrate.
A method of transmitting a signal by a Base Station, BS, in a wireless access system supporting Full Duplex Radio, FDR, transmission, the method comprising: transmitting, to a User Equipment, UE, and a plurality of UEs, initial UE-specific frame configurations regarding configurations of uplink subframes and downlink subframes; receiving, from the UE and the plurality of UEs, response information including at least one of traffic information and frame configuration information indicating a preferred frame configuration, after transmitting the initial UE-specific frame configurations; transmitting, to the UE, a second UE-specific frame configuration based on the response information, wherein the second UE-specific frame configurationis set by shifting the initial UE-specific frame configurations, wherein the shifting of the initial UE-specific frame configurations is performed to minimize interferences between the UE and the plurality of UEs in each subframe location of the initial UE-specific frame configurations, based on distributing uplink subframes as evenly as possible in the initial UE-specific frame configurations by allocating an uplink subframe starting from a subframe location having a least number of uplink subframes in the initial UE-specific frame configurations, and wherein the UE and each of the plurality of UEs are configured in a UE-specific Time Division Duplex, TDD, mode, and support the FDR transmission. transmitting, to a User Equipment, UE, and a plurality of UEs, initial UE-specific frame configurations regarding configurations of uplink subframes and downlink subframes; receiving, from the UE and the plurality of UEs, response information including at least one of traffic information and frame configuration information indicating a preferred frame configuration, after transmitting the initial UE-specific frame configurations; transmitting, to the UE, a second UE-specific frame configuration based on the response information, wherein the second UE-specific frame configurationis set by shifting the initial UE-specific frame configurations, wherein the shifting of the initial UE-specific frame configurations is performed to minimize interferences between the UE and the plurality of UEs in each subframe location of the initial UE-specific frame configurations, based on distributing uplink subframes as evenly as possible in the initial UE-specific frame configurations by allocating an uplink subframe starting from a subframe location having a least number of uplink subframes in the initial UE-specific frame configurations, and wherein the UE and each of the plurality of UEs are configured in a UE-specific Time Division Duplex, TDD, mode, and support the FDR transmission.
A system comprising a case in which a screen rolled on an axis can be accommodated, the system further comprising a drive which is connected to an inside of the case, the drive being arranged to enable the axis to be rotated for the purpose of unrolling the screen in a downward direction and/or rolling up the screen in an upward direction, wherein the system is further provided with a fitting piece with which the drive is mounted in the case, while at least one part of the fitting piece is designed to be connected to the drive outside of the case, the fitting piece being designed to be detachably and fittingly connected to the inside of the case by means of sliding the at least one part of the fitting piece into the case in a direction which is substantially horizontal and transverse to a longitudinal direction of the case, characterized in that the fitting piece being designed to be detachably and fittingly connected without the use of additional connecting means such as screws wherein the fitting piece abuts against the inside of the case at at least three mutually different locations (15.1, 15.2, 15.3), so that the fitting piece is connected to the case so as to be secured against rotation wherein the fitting piece is provided with a projection which, at an inside of the case, abuts against an upper edge of the case between two upper corner points of the case and wherein the fitting piece further abuts against an inside of the case at at least two other locations, such that the fitting piece is connected to the case so as to be secured against rotation wherein the case is further closed off with a cover for preventing the fitting piece from, eventually, sliding from the case and wherein the fitting piece consists of one plate-shaped part with an upper edge from which the projection projects outwards.
A method for checking value documents, in particular for recognizing forged value documents, having the steps of: - determining signal intensities (s) of a measuring signal at a plurality of measuring points on a value document, - selecting a group (a-c, a'-e') of the measuring points, the selection of the group being effected in dependence on a typical separating line position on the value document, - determining gradient values (g) of the signal intensities (s) for the measuring points of the group (a-c, a'-e'), - linking the gradient values (g) of the group (a-c, a'-e') for ascertaining a connection strength (V a-c, a'-e') of the group (a-c, a'-e'), the connection strength (V a-c, a'-e') of the group (a-c, a'-e') being ascertained by forming a product or a sum of the gradient values (g) of the group (a-c, a'-e'), - evaluating the connection strength (V a-c, a'-e'), wherein the value document is checked for the presence of separating lines at which the value document is assembled. - determining signal intensities (s) of a measuring signal at a plurality of measuring points on a value document, - selecting a group (a-c, a'-e') of the measuring points, the selection of the group being effected in dependence on a typical separating line position on the value document, - determining gradient values (g) of the signal intensities (s) for the measuring points of the group (a-c, a'-e'), - linking the gradient values (g) of the group (a-c, a'-e') for ascertaining a connection strength (V a-c, a'-e') of the group (a-c, a'-e'), the connection strength (V a-c, a'-e') of the group (a-c, a'-e') being ascertained by forming a product or a sum of the gradient values (g) of the group (a-c, a'-e'), - evaluating the connection strength (V a-c, a'-e'),
Glycosaminoglycan esters, wherein at least part of the hydroxyl groups present on the N-acetylglucosamine residue are esterified with an apocarotenoid, wherein said glycosaminoglycan is: hyaluronic acid and said apocarotenoid is selected from: crocetin and bixin.
A medical device comprising a control device, wherein the control device is configured to store a target current demand according to requirements of a drive of the medical device, and to determine a minimum current demand according to a minimum requirement of the drive of the medical device during a current operation, characterized in that the control device is also configured, based on the minimum current demand, to adjust a maximum value of the target current demand provided to limit the current for the current operation of the medical device.
A method performed by a controlling node (300, 400) of a cellular network for wireless communication, to control measurements on signals to or from a User Equipment, UE, engaged in a radio communication in a cluster cell of the cellular network, wherein the cluster cell is served by multiple transmission points (TP1-TP11, M), the method comprising: - identifying a set of conditions potentially affecting performance of the radio communication in the cluster cell, - selecting at least one type of reference signals and corresponding at least one type of radio measurement based on the identified set of conditions, - obtaining measurements made on the selected at least one type of reference signals according to the selected at least one type of radio measurement, - configuring a UE-specific measurement set of transmission points (TP1 - TP7) for the UE, out of the multiple transmission points serving the cluster cell, based on the obtained measurements, and - instructing the UE to perform and report measurements on UE-specific downlink signals transmitted from the transmission points of the UE-specific measurement set, - wherein the at least one type of reference signals and the corresponding at least one radio measurement are selected from a mapping table which maps different possible conditions to different possible types of reference signals and corresponding radio measurements, and the selected at least one type of reference signals comprise at least one of: uplink reference signals sent from the UE and downlink reference signals sent from the transmission points serving the cluster cell. - identifying a set of conditions potentially affecting performance of the radio communication in the cluster cell, - selecting at least one type of reference signals and corresponding at least one type of radio measurement based on the identified set of conditions, - obtaining measurements made on the selected at least one type of reference signals according to the selected at least one type of radio measurement, - configuring a UE-specific measurement set of transmission points (TP1 - TP7) for the UE, out of the multiple transmission points serving the cluster cell, based on the obtained measurements, and - instructing the UE to perform and report measurements on UE-specific downlink signals transmitted from the transmission points of the UE-specific measurement set, - wherein the at least one type of reference signals and the corresponding at least one radio measurement are selected from a mapping table which maps different possible conditions to different possible types of reference signals and corresponding radio measurements, and the selected at least one type of reference signals comprise at least one of: uplink reference signals sent from the UE and downlink reference signals sent from the transmission points serving the cluster cell.