mhurhangee/patent-ind-claim-en huggingface dataset:
Device for arranging at least one additional fold in a strip of flattened tubular shrink foil material in a container sleeving system for applying tubular shrink foil material around containers , , the device comprising a guiding element having a front side and a back side and configured to guide therealong the strip of flattened tubular shrink foil material moving in axial direction along the guiding element, wherein the guiding element comprises: - an upstream guiding element part formed by a first flat plate extending in a first plane; - a downstream guiding element part formed by a second flat plate part extending in a second plane rotated with respect to the first plane; and - a generally wedge-shaped intermediate guiding element part connected to or integrally formed with the upstream and downstream guiding element parts and shaped so as to smoothly guide the flattened tubular shrink foil material moving over the first flat plate towards the second flat plate; the device further comprising at least one pair of pressure rollers arranged on either side of the downstream guiding element part and configured to press at least one additional fold into the tubular shrink foil material; characterised in that the circumference of the guiding element in cross-section is constant over the entire height of the guiding element . - an upstream guiding element part formed by a first flat plate extending in a first plane; - a downstream guiding element part formed by a second flat plate part extending in a second plane rotated with respect to the first plane; and - a generally wedge-shaped intermediate guiding element part connected to or integrally formed with the upstream and downstream guiding element parts and shaped so as to smoothly guide the flattened tubular shrink foil material moving over the first flat plate towards the second flat plate; the device further comprising at least one pair of pressure rollers arranged on either side of the downstream guiding element part and configured to press at least one additional fold into the tubular shrink foil material; characterised in that the circumference of the guiding element in cross-section is constant over the entire height of the guiding element .
Process for making seats comprising at least one shell (S), at least one covering sheet or sheet (C) and at least one additional padding element (G) made of gel, characterized in that it comprises the following steps: • preparing at least one covering sheet or covering (C); • cutting to size at least one intermediate adhesion sheet (A) made of a material provided with micro holes or a woven fabric; • applying said at least one adhesion sheet (A) onto a surface (C1) of said covering (C) in a stable manner, in the position in which said at least one additional padding element (G) must be made; • positioning said covering (C), together with said adhesion sheets (A) applied thereon, into a first mould (M1) shaped so that it is provided with one or more concave portions (M11) for the creation of said one or more additional padding elements (G); • casting a given quantity of gel onto said at least one adhesion sheet (A), wherein the gel penetrates into said micro holes or holes present in the woven fabric of said at least one adhesion sheet (A) so as to form said at least one additional gel padding element (G) having predetermined shape and size, wherein said padding element (G) remains adherent to said at least one adhesion sheet (A). • preparing at least one covering sheet or covering (C); • cutting to size at least one intermediate adhesion sheet (A) made of a material provided with micro holes or a woven fabric; • applying said at least one adhesion sheet (A) onto a surface (C1) of said covering (C) in a stable manner, in the position in which said at least one additional padding element (G) must be made; • positioning said covering (C), together with said adhesion sheets (A) applied thereon, into a first mould (M1) shaped so that it is provided with one or more concave portions (M11) for the creation of said one or more additional padding elements (G); • casting a given quantity of gel onto said at least one adhesion sheet (A), wherein the gel penetrates into said micro holes or holes present in the woven fabric of said at least one adhesion sheet (A) so as to form said at least one additional gel padding element (G) having predetermined shape and size, wherein said padding element (G) remains adherent to said at least one adhesion sheet (A).
A packaging machine for packaging products or product groups , in particular paper material or thin cardboard material, wherein the packaging machine comprises the following: - a packaging infeed for feeding flat paper or cardboard blanks ; and - a separating device for individually separating the supplied paper or cardboard blanks and for transferring the separated paper or cardboard blanks to a product or a product group to be packaged, wherein the separating device comprises at least one gripper head and preferably exactly two gripper heads opposite one another and a mechanism associated with the at least one gripper head for preferably continuously moving the at least one gripper head on an orbit between the packaging infeed and a transfer region , in which the individual paper or cardboard blanks are transferred from the at least one gripper head to the product or product group to be packaged, wherein the mechanism associated with the at least one gripper head is configured so as to drive the at least one gripper head in a non-uniform orbital movement such that the at least one gripper head is moved more slowly in the region of the packaging infeed and in the transfer region than during the transition of the at least one gripper head from the packaging infeed to the transfer region , characterized in that the at least one gripper head is rotatably supported about a rotational axis , and wherein the mechanism associated with the at least one gripper head is configured so as to drive the at least one gripper head in a cycloidal or cycloid-like orbital movement, wherein the cycloidal or cycloid-like orbital movement is selected such that the at least one gripper head passes through a total of three repeating and consecutive cycloidal or cycloid-like path sections per 360° revolution. - a packaging infeed for feeding flat paper or cardboard blanks ; and - a separating device for individually separating the supplied paper or cardboard blanks and for transferring the separated paper or cardboard blanks to a product or a product group to be packaged,
A permanent magnet module for a rotor, configured to be mounted to a rim of the rotor and comprising a metallic main body (100; 400), a first permanent magnet component (101; 401), a first non-magnetic component (102; 402), and a cover ; wherein the metallic main body (100; 400) forms a first partial pole piece (105; 404) at a first lateral side of the permanent magnet module, forms a second partial pole piece at a second lateral side opposite to the first lateral side of the permanent magnet module and forms a trench-shaped or channel-shaped first receptacle between the first (105; 404) and second partial pole pieces, the first receptacle having a substantially U-shaped cross-section including a bottom and two side walls; wherein the first permanent magnet component (101; 401) is arranged within the first receptacle of the metallic main body (100; 400) and is magnetized in such a way that, in use, the first permanent magnet component (101; 401) has a radial magnetization direction (115; 424) with respect to an axis of rotation of the rotor; wherein the first non-magnetic component (102; 402) is arranged in a direction substantially tangential to the rotor rim between the first partial pole piece (105; 404) and the first permanent magnet component (101; 401); wherein the cover is made of non-magnetic material and is fixed to upper portions of the side walls of the first receptacle to close off a top side of the first receptacle, thereby defining a top side of the permanent magnet module fixing the first permanent magnet component within the first receptacle. the metallic main body (100; 400) forms a first partial pole piece (105; 404) at a first lateral side of the permanent magnet module, forms a second partial pole piece at a second lateral side opposite to the first lateral side of the permanent magnet module and forms a trench-shaped or channel-shaped first receptacle between the first (105; 404) and second partial pole pieces, the first receptacle having a substantially U-shaped cross-section including a bottom and two side walls; wherein the first permanent magnet component (101; 401) is arranged within the first receptacle of the metallic main body (100; 400) and is magnetized in such a way that, in use, the first permanent magnet component (101; 401) has a radial magnetization direction (115; 424) with respect to an axis of rotation of the rotor; wherein the first non-magnetic component (102; 402) is arranged in a direction substantially tangential to the rotor rim between the first partial pole piece (105; 404) and the first permanent magnet component (101; 401); wherein the cover is made of non-magnetic material and is fixed to upper portions of the side walls of the first receptacle to close off a top side of the first receptacle, thereby defining a top side of the permanent magnet module fixing the first permanent magnet component within the first receptacle.
A flavor inhaler including: a burning type heat source extending along a first direction (D1) from an ignition end toward a non-ignition end; and a holder holding the burning type heat source , wherein the burning type heat source has a tubular shape including an outer wall that forms a single longitudinal hollow extending along the first direction (D1), wherein an area of the longitudinal hollow in cross section perpendicular to the first direction (D1) is 1.77 mm 2 or more, characterized in that the flavor inhaler is adapted such that an amount of inflow air flown from the longitudinal hollow at the ignition end is 75% or less of an amount of outflow air flown from a mouthpiece of the flavor inhaler , and further in that the burning type heat source comprises a lateral hollow extending along a second direction (D2) crossing the first direction (D1), the lateral hollow communicating with the longitudinal hollow , or the holder has a holder-side hollow opening toward a second direction (D2) crossing the first direction (D1). the burning type heat source has a tubular shape including an outer wall that forms a single longitudinal hollow extending along the first direction (D1), wherein an area of the longitudinal hollow in cross section perpendicular to the first direction (D1) is 1.77 mm 2 or more, characterized in that the flavor inhaler is adapted such that an amount of inflow air flown from the longitudinal hollow at the ignition end is 75% or less of an amount of outflow air flown from a mouthpiece of the flavor inhaler , and further in that the burning type heat source comprises a lateral hollow extending along a second direction (D2) crossing the first direction (D1), the lateral hollow communicating with the longitudinal hollow , or the holder has a holder-side hollow opening toward a second direction (D2) crossing the first direction (D1). the flavor inhaler is adapted such that an amount of inflow air flown from the longitudinal hollow at the ignition end is 75% or less of an amount of outflow air flown from a mouthpiece of the flavor inhaler , and further in that the burning type heat source comprises a lateral hollow extending along a second direction (D2) crossing the first direction (D1), the lateral hollow communicating with the longitudinal hollow , or the holder has a holder-side hollow opening toward a second direction (D2) crossing the first direction (D1).
A method comprising: performing a passive scan of communications associated with a device , wherein the passive scan comprises observing one or more communications of the device over a network ; determining one or more attributes associated with the device based on the passive scan; performing an active scan of the device based on the one or more attributes based on the passive scan, wherein the active scan is customized for the device based on the one or more attributes based on the passive scan; and wherein the active scan comprises sending one or more requests to the device ; receiving a response to the active scan of the device ; determining, by a processing device , one or more attributes associated with the device based on the active scan; and storing the one or more attributes based on the passive scan and the one or more results based on the active scan associated with the device . performing a passive scan of communications associated with a device , wherein the passive scan comprises observing one or more communications of the device over a network ; determining one or more attributes associated with the device based on the passive scan; performing an active scan of the device based on the one or more attributes based on the passive scan, wherein the active scan is customized for the device based on the one or more attributes based on the passive scan; and wherein the active scan comprises sending one or more requests to the device ; receiving a response to the active scan of the device ; determining, by a processing device , one or more attributes associated with the device based on the active scan; and storing the one or more attributes based on the passive scan and the one or more results based on the active scan associated with the device .
A photovoltaic cell comprising: an absorber region ; and an emitter region comprising a plurality of nanorods extending into the absorber region ; wherein: the absorber region and the nanorods are oppositely doped thereby forming a PN junction; the absorber region and the nanorods are formed of Group III-V alloys; and the nanorods and the absorber region are oppositely strained wherein: the nanorods are tensile strained and the absorber region is compressively strained; or the nanorods are compressively strained and the absorber region is tensile strained. an absorber region ; and an emitter region comprising a plurality of nanorods extending into the absorber region ; wherein: the absorber region and the nanorods are oppositely doped thereby forming a PN junction; the absorber region and the nanorods are formed of Group III-V alloys; and the nanorods and the absorber region are oppositely strained wherein: the nanorods are tensile strained and the absorber region is compressively strained; or the nanorods are compressively strained and the absorber region is tensile strained. the nanorods are tensile strained and the absorber region is compressively strained; or the nanorods are compressively strained and the absorber region is tensile strained.
A Solanum lycopersicum plant comprising in its genome, on chromosome 1, introgressed sequences from Solanum habrochaites, wherein said introgressed sequences confer to the plant an improved phenotype corresponding to both an increased yield and an increased amount of soluble sugars allocated to fruits (Brix*Yield), with respect to a corresponding plant devoid of said sequences, irrespectively of the growth habit of said plant, wherein said introgressed sequences are chosen from those present in the genome of S . lycopersicum seeds ToPATYIELD NCIMB accession number 42567 and wherein said introgressed sequences are to be found on chromosome 1, within the chromosomal region delimited by SNP SL 10332_112 (SEQ ID N°1) and SNP EE_2225 (SEQ ID N°13) and are characterized by the presence in the genome of said plant of at least 5 of the following alleles: allele T of SNP SL10332_112 (SEQ ID No.1.), allele C of SNP EP_1592 (SEQ ID No.2), allele C of SNP EP_1027 (SEQ ID No.3), allele G of SNP EP_1150 (SEQ ID No.4), allele G of SNP EP_1876 (SEQ ID No.5), allele A of SNP EE_4621 (SEQ ID No.6), allele G of SNP SL10522_138 (SEQ ID No.7), allele T of SNP EP_0051 (SEQ ID No.8), allele T of SNP IL2_3605 (SEQ ID No.9), allele G of SNP SL20213_779 (SEQ ID No.10), allele C of SNP SL20071_190 (SEQ ID No.11), allele A of SNP IL2_6411 (SEQ ID No.12) and allele T of SNP EE_2225 (SEQ ID No.13). wherein said introgressed sequences confer to the plant an improved phenotype corresponding to both an increased yield and an increased amount of soluble sugars allocated to fruits (Brix*Yield), with respect to a corresponding plant devoid of said sequences, irrespectively of the growth habit of said plant, wherein said introgressed sequences are chosen from those present in the genome of S . lycopersicum seeds ToPATYIELD NCIMB accession number 42567 and wherein said introgressed sequences are to be found on chromosome 1, within the chromosomal region delimited by SNP SL 10332_112 (SEQ ID N°1) and SNP EE_2225 (SEQ ID N°13) and are characterized by the presence in the genome of said plant of at least 5 of the following alleles: allele T of SNP SL10332_112 (SEQ ID No.1.), allele C of SNP EP_1592 (SEQ ID No.2), allele C of SNP EP_1027 (SEQ ID No.3), allele G of SNP EP_1150 (SEQ ID No.4), allele G of SNP EP_1876 (SEQ ID No.5), allele A of SNP EE_4621 (SEQ ID No.6), allele G of SNP SL10522_138 (SEQ ID No.7), allele T of SNP EP_0051 (SEQ ID No.8), allele T of SNP IL2_3605 (SEQ ID No.9), allele G of SNP SL20213_779 (SEQ ID No.10), allele C of SNP SL20071_190 (SEQ ID No.11), allele A of SNP IL2_6411 (SEQ ID No.12) and allele T of SNP EE_2225 (SEQ ID No.13).
An energy absorber , comprising: a hub comprising a line , the line including a first end directly or indirectly attached to the hub and a second end opposite the first end; an energy absorbing arrangement directly or indirectly attached to the hub , the energy absorbing arrangement comprising an outer ring directly or indirectly attached to the hub , an inner ring directly or indirectly attached to a housing , and at least one energy absorbing member positioned between the outer ring and the inner ring , wherein the at least one energy absorbing member is configured to generate friction between the outer ring and the inner ring upon rotation of the hub ; the housing configured to contain the hub and the energy absorbing arrangement, characterized in that : at least one inner protrusion of the housing includes at least one tab (22a-22d); the inner ring comprises at least one notch provided on an inner surface of the inner ring ; and the at least one notch of the inner ring is configured to receive the at least one tab (22a-22d) of the housing in a keyed relationship. a hub comprising a line , the line including a first end directly or indirectly attached to the hub and a second end opposite the first end; an energy absorbing arrangement directly or indirectly attached to the hub , the energy absorbing arrangement comprising an outer ring directly or indirectly attached to the hub , an inner ring directly or indirectly attached to a housing , and at least one energy absorbing member positioned between the outer ring and the inner ring , wherein the at least one energy absorbing member is configured to generate friction between the outer ring and the inner ring upon rotation of the hub ; the housing configured to contain the hub and the energy absorbing arrangement, characterized in that : at least one inner protrusion of the housing includes at least one tab (22a-22d); the inner ring comprises at least one notch provided on an inner surface of the inner ring ; and the at least one notch of the inner ring is configured to receive the at least one tab (22a-22d) of the housing in a keyed relationship. at least one inner protrusion of the housing includes at least one tab (22a-22d); the inner ring comprises at least one notch provided on an inner surface of the inner ring ; and the at least one notch of the inner ring is configured to receive the at least one tab (22a-22d) of the housing in a keyed relationship.
A screen assembly , comprising: a screen element including a screen element screening surface having screening openings ; and a screen assembly support structure comprising a subgrid including a grid framework having grid openings , wherein the screen element spans the grid openings and is attached to a surface of the subgrid , wherein the screen assembly has a continuous screen assembly screening surface comprised of multiple screen element screening surfaces , and wherein each screen element is a single thermoplastic injection molded piece. a screen element including a screen element screening surface having screening openings ; and a screen assembly support structure comprising a subgrid including a grid framework having grid openings , wherein the screen element spans the grid openings and is attached to a surface of the subgrid , wherein the screen assembly has a continuous screen assembly screening surface comprised of multiple screen element screening surfaces , and wherein each screen element is a single thermoplastic injection molded piece. wherein the screen element spans the grid openings and is attached to a surface of the subgrid , wherein the screen assembly has a continuous screen assembly screening surface comprised of multiple screen element screening surfaces , and wherein each screen element is a single thermoplastic injection molded piece.
A composition comprising at least 8 reference peptides (R-peptides) selected from the group consisting of SEQ ID NO.: 1 - 27 and variants thereof, wherein at least one R-peptide is selected from each group comprising - group 2 consisting of SEQ ID NO.: 3 - 5 and variants thereof, - group 3 consisting of SEQ ID NO.: 6 - 8 and variants thereof, - group 4 consisting of SEQ ID NO.: 9 - 11 and variants thereof, - group 5 consisting of SEQ ID NO.: 12 - 18 and variants thereof, and - group 6 consisting of SEQ ID NO.: 19 - 23 and variants thereof, wherein each variant differs from the original peptide in 15 % or less of the amino acids, wherein each variant does not comprise methionine, tryptophan, cysteine, an aspartic acid-proline motif, an asparagine-proline motif or an asparagine-glycine motif, and wherein each amino acid that differs from the original peptide is obtained by a conservative amino acid exchange. - group 2 consisting of SEQ ID NO.: 3 - 5 and variants thereof, - group 3 consisting of SEQ ID NO.: 6 - 8 and variants thereof, - group 4 consisting of SEQ ID NO.: 9 - 11 and variants thereof, - group 5 consisting of SEQ ID NO.: 12 - 18 and variants thereof, and - group 6 consisting of SEQ ID NO.: 19 - 23 and variants thereof, wherein each variant differs from the original peptide in 15 % or less of the amino acids, wherein each variant does not comprise methionine, tryptophan, cysteine, an aspartic acid-proline motif, an asparagine-proline motif or an asparagine-glycine motif, and wherein each amino acid that differs from the original peptide is obtained by a conservative amino acid exchange.