mhurhangee/patent-ind-claim-en huggingface dataset:
A construction element including: - a first wall defining a front face and a second wall defining a rear face , the first and second walls being spaced apart in a longitudinal direction; - a third wall and a fourth wall respectively defining a first flank and a second flank that are spaced apart in a transverse direction, and each connecting the first and second walls , and wherein first edge faces of each one of the first, second, third and fourth walls define a base face , and second edge faces of each one of the first, second, third and fourth walls define another face , opposite to the base face in a height direction, characterised in that the second wall defines a rear face parallel to the front face and includes a portion whose thickness increases linearly in the direction of the base face joining the third and fourth walls and forming an inclined internal face of the second wall , on the opposite side from the rear face , in that the portion whose thickness increases linearly is followed, opposite to the third and fourth walls , by a terminal portion of constant thickness and in that the terminal portion extends beyond the upper end of the front face at the other face . - a first wall defining a front face and a second wall defining a rear face , the first and second walls being spaced apart in a longitudinal direction; - a third wall and a fourth wall respectively defining a first flank and a second flank that are spaced apart in a transverse direction, and each connecting the first and second walls , and wherein first edge faces of each one of the first, second, third and fourth walls define a base face , and second edge faces of each one of the first, second, third and fourth walls define another face , opposite to the base face in a height direction, characterised in that the second wall defines a rear face parallel to the front face and includes a portion whose thickness increases linearly in the direction of the base face joining the third and fourth walls and forming an inclined internal face of the second wall , on the opposite side from the rear face , in that the portion whose thickness increases linearly is followed, opposite to the third and fourth walls , by a terminal portion of constant thickness and in that the terminal portion extends beyond the upper end of the front face at the other face .
A polyolefin-based resin pre-expanded particle comprising: (B) an organic phosphorus-containing compound being nitrogen-free and at least one kind selected from the group consisting of: alkyl phosphonic acids and aryl phosphonic acids, and esters thereof; cyclic phosphonates; and cyclic bisphosphonates; and (C) a hindered amine having an OR group substituted directly on its N-atom where R is a saturated or unsaturated hydrocarbyl group, wherein, of 100% by weight of the polyolefin-based resin pre-expanded particle, the organic phosphorus-containing compound (B) accounts for not less than 1.0% by weight and not more than 10% by weight, and the hindered amine (C) accounts for not less than 0.1% by weight and not more than 5.0% by weight, and the weight ratio of the organic phosphorus-containing compound (B) to the hindered amine (C) ((B)/(C)) is not less than 1.0 and not more than 20, and wherein the weight ratio of (A) the polyolefin-based resin contained in the polyolefin-based resin pre-expanded particle to the total weight of the hindered amine (C) and the organic phosphorus-containing compound (B) ((A)/{(B)+(C)}) is not less than 22 and not more than 35. (B) an organic phosphorus-containing compound being nitrogen-free and at least one kind selected from the group consisting of: alkyl phosphonic acids and aryl phosphonic acids, and esters thereof; cyclic phosphonates; and cyclic bisphosphonates; and (C) a hindered amine having an OR group substituted directly on its N-atom where R is a saturated or unsaturated hydrocarbyl group,
A method for generating an electronic signature key and an associated public-key certificate, implemented by a client unit and a server unit , the method comprising a step during which the client unit and/or the server unit generate(s) a signature key comprising a private key and a public key, and a public key certificate comprising said public key, the method being characterized in that the client unit acquires, on an individual, one biometric data (b), in that the public key and the public key certificate are generated by encryption of at least a portion of said biometric data (b, b 1 ) using a private encryption key (K) known to the server unit so that they can be decoded by the server unit to obtain said biometric data portion, and in that the biometric data portion (b, b 1 ) from which the key public and the public key certificate have been generated is ephemeral and is not stored after generation of the signature key and of the public key certificate.
A medical image processing device comprising: a signal acquisition unit configured to acquire a first specific component image signal with a first exposure for a specific color component, a second specific component image signal with a second exposure different from the first exposure for the specific color component, and two non-specific component single exposure image signals corresponding to two color components different from the specific color component; a combination unit configured to generate a specific component combination image signal by combining the first specific component image signal and the second specific component image signal by using a weight based on an intensity of the specific color component; and a color image generation unit configured to generate a color image signal by multiplexing the specific component combination image signal generated by the combination unit and the two non-specific component single exposure image signals. a signal acquisition unit configured to acquire a first specific component image signal with a first exposure for a specific color component, a second specific component image signal with a second exposure different from the first exposure for the specific color component, and two non-specific component single exposure image signals corresponding to two color components different from the specific color component; a combination unit configured to generate a specific component combination image signal by combining the first specific component image signal and the second specific component image signal by using a weight based on an intensity of the specific color component; and a color image generation unit configured to generate a color image signal by multiplexing the specific component combination image signal generated by the combination unit and the two non-specific component single exposure image signals.
Aircraft component comprising a multilayer thermoformable film for protecting the surface of said aircraft component , said film comprising: - a sublayer of an adhesive material , referred to as the adhesive sublayer, able to adhere to the surface of said component via a first face , - and at least one layer of polymer material attached to a second face of said adhesive sublayer which is the opposite face to said first face and which is resistant to erosion by solid particles and to erosion by liquid particles, the layer of polymer material resistant to erosion by solid particles and to erosion by liquid particles being formed of a polymer material selected from a polyurethane, a polyether ether ketone and a very high molecular weight polyethylene, said polymer material having a Shore D hardness comprised between 50 and 65 D characterized in that the layer of polymer material resistant to erosion by solid particles and to erosion by liquid particles and the adhesive sublayer are applied to the exterior surface of said aircraft component . - a sublayer of an adhesive material , referred to as the adhesive sublayer, able to adhere to the surface of said component via a first face , - and at least one layer of polymer material attached to a second face of said adhesive sublayer which is the opposite face to said first face and which is resistant to erosion by solid particles and to erosion by liquid particles, the layer of polymer material resistant to erosion by solid particles and to erosion by liquid particles being formed of a polymer material selected from a polyurethane, a polyether ether ketone and a very high molecular weight polyethylene, said polymer material having a Shore D hardness comprised between 50 and 65 D characterized in that the layer of polymer material resistant to erosion by solid particles and to erosion by liquid particles and the adhesive sublayer are applied to the exterior surface of said aircraft component .
Procedure for coordinating driving maneuvers between a vehicle (A) and at least one Alius vehicle (B, C, D), with the following steps - determining a planned path of the vehicle (A), - determining an ideal trajectory for a predetermined time or distance range along the travel path based on the travel path and environmental information of the vehicle, - Determining a hesitation trajectory along the same travel path , the hesitation trajectory having the same travel path and a time delay compared to the ideal trajectory , - transmitting the ideal trajectory and the hesitation trajectory to the Alii vehicles , - receiving the ideal trajectory and the hesitation trajectory of the Alii vehicles (B, C, D), - Determine whether a conflict situation exists when the vehicle (A) and the Alii vehicles (B, C, D) move according to their ideal trajectories , - if a conflict situation is determined , determining a conflict-free default trajectory set for all vehicles (A, B, C, D), - Moving the vehicle (A) along the specification trajectory characterized in that the environmental information of the vehicle (A) is determined on the basis of environmental sensors of the vehicle and that the hesitation trajectory has a reduced length due to reduced travel speed compared to the ideal trajectory and that the conflict-free default trajectory set is selected from the ideal trajectory or the hesitation trajectory . - determining a planned path of the vehicle (A), - determining an ideal trajectory for a predetermined time or distance range along the travel path based on the travel path and environmental information of the vehicle, - Determining a hesitation trajectory along the same travel path , the hesitation trajectory having the same travel path and a time delay compared to the ideal trajectory , - transmitting the ideal trajectory and the hesitation trajectory to the Alii vehicles , - receiving the ideal trajectory and the hesitation trajectory of the Alii vehicles (B, C, D), - Determine whether a conflict situation exists when the vehicle (A) and the Alii vehicles (B, C, D) move according to their ideal trajectories , - if a conflict situation is determined , determining a conflict-free default trajectory set for all vehicles (A, B, C, D), - Moving the vehicle (A) along the specification trajectory the environmental information of the vehicle (A) is determined on the basis of environmental sensors of the vehicle and that the hesitation trajectory has a reduced length due to reduced travel speed compared to the ideal trajectory and that the conflict-free default trajectory set is selected from the ideal trajectory or the hesitation trajectory .
Detector for electromagnetic radiation, in particular an X-ray and/or gamma detector, comprising: - a first, pixelated electrode layer (3.3; 5.3) comprising a plurality of electrode pixels (1.5) as well as intermediate spaces between the individual electrode pixels (1.5), - a second electrode (1.1), and - a first layer (1.3; 3.6; 5.1) comprising at least one first perovskite, which is located between the first, pixelated electrode layer (3.3; 5.3) and the second electrode (1.1), characterised in that the detector for electromagnetic radiation further comprises a structure (1.4; 3.2; 5.2), which is located at least partly between the first, pixelated electrode layer (3.3; 5.3) and the second electrode (1.1) and is arranged at least partly between individual electrode pixels (1.5) of the first, pixelated electrode layer (3.3; 5.3) in such a way that it is arranged at least partly on the intermediate spaces between the individual electrode pixels (1.5) in the direction of the second electrode (1.1) away from the first electrode layer (3.3; 5.3), wherein the first layer (1.3; 3.6; 5.1) comprising at least one first perovskite is at least partly introduced into the structure (1.4; 3.2; 5.2). - a first, pixelated electrode layer (3.3; 5.3) comprising a plurality of electrode pixels (1.5) as well as intermediate spaces between the individual electrode pixels (1.5), - a second electrode (1.1), and - a first layer (1.3; 3.6; 5.1) comprising at least one first perovskite, which is located between the first, pixelated electrode layer (3.3; 5.3) and the second electrode (1.1),
A method for producing a bispecific antibody, comprising the steps of: a) providing a homo variant of associated first polypeptides each polypeptide comprising the amino acid sequence of a first antibody heavy chain, each having a first antigen-binding activity and comprising an Fc region; b) providing a homo variant of associated second polypeptides each polypeptide comprising the amino acid sequence of a second antibody heavy chain, each having a second antigen-binding activity different from the first antigen-binding activity and comprising an Fc region; c) incubating the homo variant of the first polypeptides and the homo variant of the second polypeptides together under a reducing condition that allows cysteines in hinge regions to cause disulfide bond isomerization; and d) obtaining a heteromultimer comprising the first and second polypeptides, wherein 1 to 3 sets of amino acid residues selected from the following amino acid residue sets: amino acid residues at EU numbering positions 356 and 439, amino acid residues at EU numbering positions 357 and 370, and amino acid residues at EU numbering positions 399 and 409 in said first heavy chain Fc region have the same type of charge, and the corresponding 1 to 3 sets in said second heavy chain Fc region have a charge opposite to that of said amino acid residues having the same type of charge in the first heavy chain Fc region, wherein the Fc region of said first and second polypeptide is of human IgG1 or IgG4 type. a) providing a homo variant of associated first polypeptides each polypeptide comprising the amino acid sequence of a first antibody heavy chain, each having a first antigen-binding activity and comprising an Fc region; b) providing a homo variant of associated second polypeptides each polypeptide comprising the amino acid sequence of a second antibody heavy chain, each having a second antigen-binding activity different from the first antigen-binding activity and comprising an Fc region; c) incubating the homo variant of the first polypeptides and the homo variant of the second polypeptides together under a reducing condition that allows cysteines in hinge regions to cause disulfide bond isomerization; and d) obtaining a heteromultimer comprising the first and second polypeptides, wherein 1 to 3 sets of amino acid residues selected from the following amino acid residue sets: amino acid residues at EU numbering positions 356 and 439, amino acid residues at EU numbering positions 357 and 370, and amino acid residues at EU numbering positions 399 and 409 in said first heavy chain Fc region have the same type of charge, and the corresponding 1 to 3 sets in said second heavy chain Fc region have a charge opposite to that of said amino acid residues having the same type of charge in the first heavy chain Fc region, wherein the Fc region of said first and second polypeptide is of human IgG1 or IgG4 type. amino acid residues at EU numbering positions 356 and 439, amino acid residues at EU numbering positions 357 and 370, and amino acid residues at EU numbering positions 399 and 409
An interconnection substrate for electronic components comprising - an insulating layer with a plurality of through holes , - an electrically conductive layer laid over the insulating layer , wherein the conductive layer comprises a plurality of connecting units arranged according to an array of rows and columns, wherein each connecting unit of this plurality of connecting units comprises two component pads , each one of which at least partially covering a component through hole , with a gap between these two component pads so as to electrically insulate them from one another, and characterized in that connecting units in a row direction are electrically connected with first connection traces , said two component pads being connected in a row by first connection traces , in that connecting units in columns are electrically connected with second connection traces , and in that second connection traces are electrically connected to one another by third connection traces extending in the row direction and between two rows of said component pads . - an insulating layer with a plurality of through holes , - an electrically conductive layer laid over the insulating layer ,
A photovoltaic laminate comprising: a plurality of photovoltaic solar cells , each of the solar cells having a upper side facing the sun during normal operation and a lower side facing away from the sun; an encapsulant layer (140, 240, 340; 150, 250, 350) surrounding and enclosing the solar cells, the encapsulant layer extending between gaps in the solar cells; a transparent cover layer disposed above the upper side of the plurality of solar cells and atop the encapsulant layer, the encapsulant layer adhering to the cover layer; and a mono-stratum sealing layer below the lower side of the plurality of solar cells and beneath the encapsulant layer, the encapsulant layer adhering to the sealing layer along an inner surface and having an outer surface exposed to the ambient environment, characterized in that the mono-stratum sealing layer is co-extruded with at least part of the encapsulant layer. a plurality of photovoltaic solar cells , each of the solar cells having a upper side facing the sun during normal operation and a lower side facing away from the sun; an encapsulant layer (140, 240, 340; 150, 250, 350) surrounding and enclosing the solar cells, the encapsulant layer extending between gaps in the solar cells; a transparent cover layer disposed above the upper side of the plurality of solar cells and atop the encapsulant layer, the encapsulant layer adhering to the cover layer; and a mono-stratum sealing layer below the lower side of the plurality of solar cells and beneath the encapsulant layer, the encapsulant layer adhering to the sealing layer along an inner surface and having an outer surface exposed to the ambient environment, characterized in that the mono-stratum sealing layer is co-extruded with at least part of the encapsulant layer.
An apparatus comprising: a microchannel connected to a glass capillary in fluid communication with the microchannel wherein the glass capillary comprises a vertical section connected to the microchannel and a horizontal section connected to the vertical section; a pressure source connected to the microchannel that applies a constant pressure drop across the microchannel ; a digital camera positioned with respect to the glass capillary to capture two or more images of a fluidic slug as a fluid travels within the horizontal section of the glass capillary ; and a processor communicably coupled to the digital camera that determines a location of the fluidic slug within the horizontal section of the glass capillary for each of the two or more digital images, determines a flow rate of the fluid based on the locations of the fluidic slug within the glass capillary, and a viscosity of the fluid based on the applied constant pressure drop and the flow rate of the fluid. a microchannel connected to a glass capillary in fluid communication with the microchannel wherein the glass capillary comprises a vertical section connected to the microchannel and a horizontal section connected to the vertical section; a pressure source connected to the microchannel that applies a constant pressure drop across the microchannel ; a digital camera positioned with respect to the glass capillary to capture two or more images of a fluidic slug as a fluid travels within the horizontal section of the glass capillary ; and a processor communicably coupled to the digital camera that determines a location of the fluidic slug within the horizontal section of the glass capillary for each of the two or more digital images, determines a flow rate of the fluid based on the locations of the fluidic slug within the glass capillary, and a viscosity of the fluid based on the applied constant pressure drop and the flow rate of the fluid.
A method for the production of a concrete body with a cavity open outwardly via at least one opening, comprising the following steps: a) providing an outer mold for shaping the outer surface of the concrete body ; b) providing a mold core for shaping the cavity of the concrete body ; c) arranging the mold core in the outer mold while forming a space therebetween; d) casting the space formed between the outer mold and the mold core with concrete ; e) hardening of the concrete in the space formed between the outer mold and the mold core while forming the concrete body ; and f) removing the mold core from the concrete body through the at least one opening of the cavity , wherein a mold core is provided, the outer shaping surface of which being formed at least partially or completely by a layer comprising a compressible material, which is arranged on a rigid support structure of the mold core , characterized in that an outer mold is obtained which defines the outer surface of an essentially cylindrically shaped body, and in that a cylindrically shaped mold core is obtained which has an essentially uniform, non-circular cross-section over the axial extension thereof, and in that this cross-section is arranged centrally in the outer mold . a) providing an outer mold for shaping the outer surface of the concrete body ; b) providing a mold core for shaping the cavity of the concrete body ; c) arranging the mold core in the outer mold while forming a space therebetween; d) casting the space formed between the outer mold and the mold core with concrete ; e) hardening of the concrete in the space formed between the outer mold and the mold core while forming the concrete body ; and f) removing the mold core from the concrete body through the at least one opening of the cavity ,