mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a structural panel defining lateral, longitudinal and vertical directions that are perpendicular to each other, the method comprising: forming a core structure that includes a plurality of corrugated ribbons and a plurality of walls , each of the corrugated ribbons laterally between a respective adjacent pair of the walls , each of the corrugated ribbons including a plurality of baffles and a plurality of porous septums , and each of the porous septums longitudinally between a respective adjacent pair of the baffles ; the forming of the core structure comprising bonding a first of the walls to a first of the corrugated ribbons and subsequently bonding a second of the walls to the first of the corrugated ribbons ; bonding the core structure to a first skin ; and bonding the core structure to a second skin ; wherein the core structure is vertically between the first skin and the second skin , and the first skin is configured with a plurality of perforations ; characterised in that : the forming of the core structure further comprises bonding the second of the walls to a second of the corrugated ribbons and subsequently performing the bonding of the second of the walls to the first of the corrugated ribbons . forming a core structure that includes a plurality of corrugated ribbons and a plurality of walls , each of the corrugated ribbons laterally between a respective adjacent pair of the walls , each of the corrugated ribbons including a plurality of baffles and a plurality of porous septums , and each of the porous septums longitudinally between a respective adjacent pair of the baffles ; the forming of the core structure comprising bonding a first of the walls to a first of the corrugated ribbons and subsequently bonding a second of the walls to the first of the corrugated ribbons ; bonding the core structure to a first skin ; and bonding the core structure to a second skin ; wherein the core structure is vertically between the first skin and the second skin , and the first skin is configured with a plurality of perforations ; characterised in that : the forming of the core structure further comprises bonding the second of the walls to a second of the corrugated ribbons and subsequently performing the bonding of the second of the walls to the first of the corrugated ribbons .
A method of producing one or more products, comprising: introducing a feedstock gas into a mixing chamber , wherein the feedstock gas comprises one or more gases; introducing a combustible gas into a combustion chamber connected to the mixing chamber via multiple passageways that are always open, wherein the combustible gas comprises one or more gases; and thereafter, igniting the combustible gas so as to combust the combustible gas and thereby form one or more combustion product gases and cause the one or more combustion product gases to flow into the mixing chamber via the multiple passageways between the combustion chamber and the mixing chamber, and to cause the one or more combustion product gases to mix with the feedstock gas, wherein, as a result of the mixing of the one or more combustion product gases with the feedstock gas, energy is transferred from the one or more combustion product gases to the feedstock gas and thereby causes a chemical reaction to produce one or more products. introducing a feedstock gas into a mixing chamber , wherein the feedstock gas comprises one or more gases; introducing a combustible gas into a combustion chamber connected to the mixing chamber via multiple passageways that are always open, wherein the combustible gas comprises one or more gases; and thereafter, igniting the combustible gas so as to combust the combustible gas and thereby form one or more combustion product gases and cause the one or more combustion product gases to flow into the mixing chamber via the multiple passageways between the combustion chamber and the mixing chamber, and to cause the one or more combustion product gases to mix with the feedstock gas, wherein, as a result of the mixing of the one or more combustion product gases with the feedstock gas, energy is transferred from the one or more combustion product gases to the feedstock gas and thereby causes a chemical reaction to produce one or more products.
A rotor assembly for a disc brake system , the rotor assembly comprising: a central mounting section including a hub adapted to be connected to a wheel or axle of a vehicle, a flange connected to a radial outer edge of the hub , and a first set of connection elements formed in or on the flange ; and an outer friction ring section having friction surfaces adapted to make contact with one or more brake pads of a disc brake caliper , and including a radial inner flange and a second set of connection elements formed in or on the radial inner flange , the first set of connection elements of the central mounting section and the second set of connection elements of the outer friction ring section being configured to be press fit together to connect the central mounting section with the outer friction ring section . the outer friction ring section including a first ring member and a second ring member , characterised in that the first and second ring members include a third set of connection elements which includes a plurality of projections and a fourth set of connection elements which includes a plurality of stub receptacles that extend from a surface of the second ring member, and wherein the projections are press fit into the stub receptacles to connect the first ring member with the second ring member . a central mounting section including a hub adapted to be connected to a wheel or axle of a vehicle, a flange connected to a radial outer edge of the hub , and a first set of connection elements formed in or on the flange ; and an outer friction ring section having friction surfaces adapted to make contact with one or more brake pads of a disc brake caliper , and including a radial inner flange and a second set of connection elements formed in or on the radial inner flange , the first set of connection elements of the central mounting section and the second set of connection elements of the outer friction ring section being configured to be press fit together to connect the central mounting section with the outer friction ring section . the outer friction ring section including a first ring member and a second ring member , characterised in that the first and second ring members include a third set of connection elements which includes a plurality of projections and a fourth set of connection elements which includes a plurality of stub receptacles that extend from a surface of the second ring member, and wherein the projections are press fit into the stub receptacles to connect the first ring member with the second ring member .
A seal segment comprising: a retainer adapted to extend in a circumferential direction (Dc) of a rotary shaft on an outer circumferential side of the rotary shaft ; a seal body extending inward in a radial direction (Dr) from the retainer and having a plurality of thin plate seal pieces laminated in the circumferential direction (Dc); a high-pressure side plate which is supported so that it is sandwiched between the seal body and the retainer and covers a high-pressure side in an axial direction (Da) of the seal body over the circumferential direction (Dc); a low-pressure side plate which is supported so that it is sandwiched between the seal body and the retainer and covers a low-pressure side in the axial direction (Da) of the seal body over the circumferential direction (Dc); wherein the seal segment further comprises a block body comprising: a retainer imitation section further extending in the circumferential direction (Dc) from an end portion of the retainer in the circumferential direction (Dc); and a seal body imitation section extending inward in the radial direction (Dr) from the retainer imitation section , wherein the high-pressure side plate and the low-pressure side plate cover at least a part of the seal body imitation section of the block body , characterized in that the seal body imitation section is a block having a thickness in the circumferential direction (Dc) of three or more of the thin plate seal pieces . a retainer adapted to extend in a circumferential direction (Dc) of a rotary shaft on an outer circumferential side of the rotary shaft ; a seal body extending inward in a radial direction (Dr) from the retainer and having a plurality of thin plate seal pieces laminated in the circumferential direction (Dc); a high-pressure side plate which is supported so that it is sandwiched between the seal body and the retainer and covers a high-pressure side in an axial direction (Da) of the seal body over the circumferential direction (Dc); a low-pressure side plate which is supported so that it is sandwiched between the seal body and the retainer and covers a low-pressure side in the axial direction (Da) of the seal body over the circumferential direction (Dc); wherein the seal segment further comprises a block body comprising: a retainer imitation section further extending in the circumferential direction (Dc) from an end portion of the retainer in the circumferential direction (Dc); and a seal body imitation section extending inward in the radial direction (Dr) from the retainer imitation section , wherein the high-pressure side plate and the low-pressure side plate cover at least a part of the seal body imitation section of the block body , characterized in that the seal body imitation section is a block having a thickness in the circumferential direction (Dc) of three or more of the thin plate seal pieces .
An antenna apparatus comprising: a substrate having a cavity in a first outer surface thereof, the substrate having a sidewall defining a portion of the cavity , wherein a first edge contact is formed at the sidewall ; an integrated circuit (IC) chip disposed within the cavity , having a side surface facing the sidewall and a second edge contact formed on the side surface electrically connected to the first edge contact ; characterized in that an antenna element is disposed at a second outer surface of the substrate opposite the first outer surface , the antenna element being electrically connected to radio frequency (RF) circuitry within the IC chip through a conductive via extending within the substrate . a substrate having a cavity in a first outer surface thereof, the substrate having a sidewall defining a portion of the cavity , wherein a first edge contact is formed at the sidewall ; an integrated circuit (IC) chip disposed within the cavity , having a side surface facing the sidewall and a second edge contact formed on the side surface electrically connected to the first edge contact ; characterized in that an antenna element is disposed at a second outer surface of the substrate opposite the first outer surface , the antenna element being electrically connected to radio frequency (RF) circuitry within the IC chip through a conductive via extending within the substrate .
A variant polypeptide having geranylgeranyl pyrophosphate synthase activity, which variant polypeptide comprises an amino acid sequence which, when aligned with a geranylgeranyl pyrophosphate synthase comprising the sequence set out in SEQ ID NO: 1, comprises at least one substitution of an amino acid residue corresponding to any of amino acids at positions 92, 100 or 235, said positions being defined with reference to SEQ ID NO: 1, wherein said variant polypeptide has one or more modified properties as compared with a reference polypeptide having geranylgeranyl pyrophosphate synthase activity and wherein said variant polypeptide has at least 70%, at least 75%, at least 80%, at least 85%, at least 90%, at least 95%, at least 97%, at least 98% or at least 99% sequence identity with SEQ ID NO: 1 or SEQ ID NO: 17.
Method for creating an authenticable binary graphic code,comprising: in response to a request for creation of the binary graphic code, creating a binary graphic encoded pattern for information to be encoded; adding microstructure features to the binary graphic encoded pattern; printing the binary graphic encoded pattern and the microstructure features on a label or a product surface, the microstructure features being much thinner than cells composing the binary graphic encoded pattern and not affecting the reading of the binary pattern code, and the label or product surface having a random effect on the integrity of the printed microstructure features; extracting the binary graphic encoded pattern and microstructure features; recording the binary graphic encoded pattern and microstructure features as all or part of a standard for authenticating the binary graphic code, wherein said microstructure features are small, meaningful or insignificant dots, lattices, lines, graphic, text, or a combination thereof, and a thickness of said microstructure features is close to the resolution of a printer. in response to a request for creation of the binary graphic code, creating a binary graphic encoded pattern for information to be encoded; adding microstructure features to the binary graphic encoded pattern; printing the binary graphic encoded pattern and the microstructure features on a label or a product surface, the microstructure features being much thinner than cells composing the binary graphic encoded pattern and not affecting the reading of the binary pattern code, and the label or product surface having a random effect on the integrity of the printed microstructure features; extracting the binary graphic encoded pattern and microstructure features; recording the binary graphic encoded pattern and microstructure features as all or part of a standard for authenticating the binary graphic code, wherein said microstructure features are small, meaningful or insignificant dots, lattices, lines, graphic, text, or a combination thereof, and a thickness of said microstructure features is close to the resolution of a printer.
An oil in water type solid cosmetic, comprising: (a) 0.1 to 5% by mass of a hydrophobically modified polyether urethane represented by Formula (I) below; (b) 0.05 to 1% by mass of a hydrophilic plate shaped powder having an average aspect ratio within the range from 20 to 100; (c) 5 to 25 % by mass of a hydrophobic powder; (d) an oil component; and (e) water; Formula (I): R 1 -{(O-R 2 ) k -OCONH-R 3 [-NHCOO- (R4-O) n -R 5 ] h } m wherein: R 1 , R 2 and R 4 each independently represent an alkylene group having 2 to 4 carbon atoms; R 3 represents an alkylene group having 1 to 10 carbon atoms; R 5 is a linear, branched or secondary alkyl group having 12 to 24 carbon atoms; m is 2; h is 1; k is a number within a range from 100 to 300; and n is a number within a range from 10 to 100. (a) 0.1 to 5% by mass of a hydrophobically modified polyether urethane represented by Formula (I) below; (b) 0.05 to 1% by mass of a hydrophilic plate shaped powder having an average aspect ratio within the range from 20 to 100; (c) 5 to 25 % by mass of a hydrophobic powder; (d) an oil component; and (e) water; Formula (I): R 1 -{(O-R 2 ) k -OCONH-R 3 [-NHCOO- (R4-O) n -R 5 ] h } m wherein: R 1 , R 2 and R 4 each independently represent an alkylene group having 2 to 4 carbon atoms; R 3 represents an alkylene group having 1 to 10 carbon atoms; R 5 is a linear, branched or secondary alkyl group having 12 to 24 carbon atoms; m is 2; h is 1; k is a number within a range from 100 to 300; and n is a number within a range from 10 to 100. R 1 , R 2 and R 4 each independently represent an alkylene group having 2 to 4 carbon atoms; R 3 represents an alkylene group having 1 to 10 carbon atoms; R 5 is a linear, branched or secondary alkyl group having 12 to 24 carbon atoms; m is 2; h is 1; k is a number within a range from 100 to 300; and n is a number within a range from 10 to 100.
An imaging device for animal test subjects, comprising: a darkroom box provided with an opening adapted to allow a part of a test subject to protrude outward from the darkroom box while a remaining part of the test subject is positioned inside the darkroom box ; a test subject supporter adapted for mounting a test subject thereon; an image capturing device adapted to take images of the test subject mounted on the test subject supporter inside the darkroom box while an external stimulus is applied to the part of the test subject positioned outside the darkroom box , characterized in that the imaging device further comprises an image processing system adapted to process the images taken by the image capturing device , wherein the darkroom box has a blackout device installed at the opening , the blackout device being adapted to block incident light into the darkroom box by shielding other portions of the test subject besides the protruding part of the test subject , and wherein the blackout device is adapted to manually or automatically adjust, depending on a size of the body of the test subject which protrudes outward from the darkroom box , a size of the opening . a darkroom box provided with an opening adapted to allow a part of a test subject to protrude outward from the darkroom box while a remaining part of the test subject is positioned inside the darkroom box ; a test subject supporter adapted for mounting a test subject thereon; an image capturing device adapted to take images of the test subject mounted on the test subject supporter inside the darkroom box while an external stimulus is applied to the part of the test subject positioned outside the darkroom box , characterized in that the imaging device further comprises an image processing system adapted to process the images taken by the image capturing device , wherein the darkroom box has a blackout device installed at the opening , the blackout device being adapted to block incident light into the darkroom box by shielding other portions of the test subject besides the protruding part of the test subject , and wherein the blackout device is adapted to manually or automatically adjust, depending on a size of the body of the test subject which protrudes outward from the darkroom box , a size of the opening .
A compound for use in the treatment of glioblastoma with WNT6 over-expression, wherein the compound is selected from the following list: vantictumab, GNF-1331, ipafricept, XAV-939, IWR-1, pyrvinium, DKN-01, IWP-2, WNT974, niclosamide, sulindac, NSC668036, J01-017a, PRI-724, ICG-001, Calphostin C, Toxoflavin, Xanthothricin, NCB-0846, Cercosporin, StAX-35, NVP-TNKS656, JW74, Foxy-5, OTSA 101, CWP232291, ETC 159, Rosmantuzumab, RO4929097, MK0752, PF-03084014, or combinations thereof.
A method for visualizing security information of a digitally stored image comprising a plurality of pixels and at least one digitally encoded security information, comprising the steps of: Assigning at least some of the pixels to at least one image area; Determining an average colour value of the pixels assigned to the image area; Determining two mutually complementary colour values whose mean colour value is at least approximately identical to the determined mean colour value of the pixels assigned to the image area; Representing, visually perceptibly, the image area and at least part of the digitally encoded security information, wherein the displayed image area has a first of the complementary colour values, and the part of the digitally encoded security information is displayed within the image area and has a second of the colour values complementary to each other. Assigning at least some of the pixels to at least one image area; Determining an average colour value of the pixels assigned to the image area; Determining two mutually complementary colour values whose mean colour value is at least approximately identical to the determined mean colour value of the pixels assigned to the image area; Representing, visually perceptibly, the image area and at least part of the digitally encoded security information, wherein the displayed image area has a first of the complementary colour values, and the part of the digitally encoded security information is displayed within the image area and has a second of the colour values complementary to each other.
A data compressing device comprising: an input data dividing unit configured to divide continuously inputted data into data blocks each having a first bit width and to output the data blocks by a predetermined number of the data blocks one by one as a segment; a compression-selector configured to select for each of the segments, first compression means, second compression means, or non-compression means according to a ratio of data blocks of specific data with respect to the data blocks included in the segment; a first compression unit configured to execute, on any of the segments, the first compression means of storing a run length value of the specific data into compressed data; and a second compression unit configured to execute, on any of the segments, the second compression means of storing a flag bit of positional information of the specific data into the compressed data, wherein the data format of the data to be inputted is defined in advance, and data compressed by the first compression unit and data compressed by the second compression unit are allocated to respective particular patterns; wherein the data format of the data to be inputted is a data format using IEEE754 half-precision floating-point expression, and the compressed data has a sign section, an exponent section and a fraction section, and wherein the compression means selected by the compression-selector is identified by a combination of the bit values in the sign section, the exponent section and the fraction section. an input data dividing unit configured to divide continuously inputted data into data blocks each having a first bit width and to output the data blocks by a predetermined number of the data blocks one by one as a segment; a compression-selector configured to select for each of the segments, first compression means, second compression means, or non-compression means according to a ratio of data blocks of specific data with respect to the data blocks included in the segment; a first compression unit configured to execute, on any of the segments, the first compression means of storing a run length value of the specific data into compressed data; and a second compression unit configured to execute, on any of the segments, the second compression means of storing a flag bit of positional information of the specific data into the compressed data, wherein the data format of the data to be inputted is defined in advance, and data compressed by the first compression unit and data compressed by the second compression unit are allocated to respective particular patterns; wherein the data format of the data to be inputted is a data format using IEEE754 half-precision floating-point expression, and the compressed data has a sign section, an exponent section and a fraction section, and wherein the compression means selected by the compression-selector is identified by a combination of the bit values in the sign section, the exponent section and the fraction section.