mhurhangee/patent-ind-claim-en huggingface dataset:
Method of identifying a polynucleic acid comprising the steps of providing a polynucleic acid; modifying one or more nucleobases of the polynucleic acid by addition or removal of a hydrogen bonding partner, thereby altering the base pairing capacity of the one or more nucleobases; base pairing a complementary nucleic acid to the polynucleic acid, including base pairing to at least one modified nucleobase, wherein base pairing to at least one modified nucleobase leads to base pairing with another nucleotide than base pairing with the nucleobase that has not been modified; identifying the sequence of the complementary nucleic acid at least at the position that is complementary to at least one modified nucleobase, i) wherein one or more cells are cultured or grown in at least two culturing or growth phases, wherein one culturing or growth phase comprises incorporation of a modified nucleotide into biosynthesized polynucleic acid, which is modified by addition or removal of a hydrogen bonding partner, and another culturing or growth phase that lacks such incorporation of the modified nucleotide into biosynthesized polynucleic acid or wherein modified nucleotides are incorporated into biosynthesized polynucleic acid at a different concentration as in the other one culturing or growth phase, or ii) wherein the method comprises incorporation of a modified nucleotide into biosynthesized polynucleic acid of at least two different cells or into at least two different groups of cells. i) wherein one or more cells are cultured or grown in at least two culturing or growth phases, wherein one culturing or growth phase comprises incorporation of a modified nucleotide into biosynthesized polynucleic acid, which is modified by addition or removal of a hydrogen bonding partner, and another culturing or growth phase that lacks such incorporation of the modified nucleotide into biosynthesized polynucleic acid or wherein modified nucleotides are incorporated into biosynthesized polynucleic acid at a different concentration as in the other one culturing or growth phase, or ii) wherein the method comprises incorporation of a modified nucleotide into biosynthesized polynucleic acid of at least two different cells or into at least two different groups of cells.
Fire door lock with a latch bolt immobilizer, of the type provided with a lock housing having a central axis of symmetry and equidistant insertion openings for lock cylinders above and below the central axis for use in doors that open on the right or on the left, and a latch bolt which projects beyond the front of the lock at the level of a central axis, the latch bolt immobilizer comprising a lever which is connected to a rocker and a guard and is able to move horizontally and in tandem into a latch bolt immobilizing position when a cam on a lock cylinder is actuated, preventing contact between an actuating end of a follower and an actuating lug of the rocker during a rotational movement of the follower , therefore said lever being able to deactivate a withdrawal of the latch bolt through the interaction between the follower and the rocker , characterized in that in a resting position of the fire door lock the rocker moves vertically when the actuating end of the follower contacts the actuating lug of the rocker by acting over the follower .
Check valve for a hydraulic Gerotor or Geroler machine, the check valve comprising a valve housing having a first port and a second port connected to a valve chamber , a valve seat having a valve seat axis and being arranged between the first port and the valve chamber , and a valve element movably arranged within the valve chamber between the valve seat and a stop face opposite the valve seat , wherein the valve housing comprises a first part having the first port and a second part having the second port and being connected to the first part , wherein the second port opens into the stop face by means of an array of holes , wherein the stop face is part of an end face of the second part , wherein the end face of the second part is the face which contacts the first part of the valve housing and wherein the holes are machined into the stop face , wherein the valve element is in form of a ball so that a diameter of the valve element defines the cross section area of the valve element and wherein the holes are in form of cylinder bores having a diameter which is smaller than the diameter of the ball-shaped valve element , and wherein the holes at least partly overlap the cross section of the second port , characterized in that only three parts are necessary in the check valve , namely the first part , the second part , and the valve element , in that the array covers an area which is larger than a cross section of the second port , and in that the valve element is not guided within the valve chamber and is movable perpendicular to the valve seat axis . wherein the second port opens into the stop face by means of an array of holes , wherein the stop face is part of an end face of the second part , wherein the end face of the second part is the face which contacts the first part of the valve housing and wherein the holes are machined into the stop face , wherein the valve element is in form of a ball so that a diameter of the valve element defines the cross section area of the valve element and wherein the holes are in form of cylinder bores having a diameter which is smaller than the diameter of the ball-shaped valve element , and wherein the holes at least partly overlap the cross section of the second port ,
Cellulose-based, multilayer, three-dimensional food packaging comprising a plastic layer, a barrier paper layer and a moulded cellulose layer, wherein the cellulose-based, multilayer, three-dimensional food packaging has an oxygen transmission rate (OTR) of less than 30 cc/m 2 /d (23°C, 50%RH) with the method DIN 53338-5 and a water vapor transmission rate (WVTR) of less than 20 g/m 2 /d (38°C, 90 %RH) with the method ISO 2528
A refrigerator , comprising a case defining a storage space, and at least one door assembly , wherein each door assembly comprises: a door provided in front of the case and used for opening or closing the storage space; and at least one translation hinge , wherein each translation hinge has two swing arms , and two ends of each swing arm are directly or indirectly mounted rotatably on the door and the case relative to the door and the case , respectively, such that each translation hinge and the door and the case form a parallelogram-shaped mechanism, allowing the door to translate to open or close the storage space, wherein the translation hinge further comprises: a first connector fixed to an inner side surface of the door , one end of each swing arm being rotatably mounted to the first connector , and a second connector fixed to the case , an other end of each swing arm being rotatably mounted to the second connector , characterized in that the refrigerator further comprises a stop part , a first baffle plate and a second baffle plate which are provided behind the second connector . a door provided in front of the case and used for opening or closing the storage space; and at least one translation hinge , wherein each translation hinge has two swing arms , and two ends of each swing arm are directly or indirectly mounted rotatably on the door and the case relative to the door and the case , respectively, such that each translation hinge and the door and the case form a parallelogram-shaped mechanism, allowing the door to translate to open or close the storage space, wherein the translation hinge further comprises: a first connector fixed to an inner side surface of the door , one end of each swing arm being rotatably mounted to the first connector , and a second connector fixed to the case , an other end of each swing arm being rotatably mounted to the second connector , characterized in that the refrigerator further comprises a stop part , a first baffle plate and a second baffle plate which are provided behind the second connector . a first connector fixed to an inner side surface of the door , one end of each swing arm being rotatably mounted to the first connector , and a second connector fixed to the case , an other end of each swing arm being rotatably mounted to the second connector , characterized in that the refrigerator further comprises a stop part , a first baffle plate and a second baffle plate which are provided behind the second connector .
A water storage device , wherein the device comprises: a housing forming a water storage cavity and having a water inlet end and a water outlet end disposed opposite to the water inlet end ; a water distribution plate disposed in the water storage cavity and configured to divide the water storage cavity into a water inlet cavity towards the water inlet end and a water outlet cavity towards the water outlet end , a gap allowing water to flow through being provided between the outer edge of the water distribution plate and the inner wall of the housing; when water enters from the water inlet end, the incoming water drives the water distribution plate to move towards the water outlet end; a driving member configured to drive the water distribution plate to return to the water inlet end after the water distribution plate moves toward the water outlet end , characterized in that , a water outlet slot communicated with the water storage cavity is disposed protrusively and outwardly on a side of the housing adjacent to the water outlet end, and wherein after the water distribution plate moves to the water outlet end, the water outlet slot is communicated with both the water inlet cavity and the water outlet cavity. a housing forming a water storage cavity and having a water inlet end and a water outlet end disposed opposite to the water inlet end ; a water distribution plate disposed in the water storage cavity and configured to divide the water storage cavity into a water inlet cavity towards the water inlet end and a water outlet cavity towards the water outlet end , a gap allowing water to flow through being provided between the outer edge of the water distribution plate and the inner wall of the housing; when water enters from the water inlet end, the incoming water drives the water distribution plate to move towards the water outlet end; a driving member configured to drive the water distribution plate to return to the water inlet end after the water distribution plate moves toward the water outlet end , characterized in that , a water outlet slot communicated with the water storage cavity is disposed protrusively and outwardly on a side of the housing adjacent to the water outlet end, and wherein after the water distribution plate moves to the water outlet end, the water outlet slot is communicated with both the water inlet cavity and the water outlet cavity.
A foldable terminal, comprising a body , a display screen and a flattening member ; the display screen being located on a surface of the body , and the display screen comprising a bendable portion ; the flattening member being located between the body and the bendable portion , and the flattening member being configured to apply a force to the bendable portion , such that the bendable portion is flattened when the foldable terminal is in a flattened state, characterized in that the flattening member comprises two sets of limit protrusions , and each set of limit protrusions comprises a first protrusion and a second protrusion ; the first protrusions of the two sets of limit protrusions are respectively fixed on two sides of a center line (L) of the bendable portion , the second protrusions of the two sets of limit protrusions are respectively fixed on the body , and the two second protrusions are located between the two first protrusions ; when the foldable terminal is in the flattened state, the first protrusion and the second protrusion of each set of limit protrusions are in contact or partially in contact with each other with a force generated between the first protrusion and the second protrusion . the display screen being located on a surface of the body , and the display screen comprising a bendable portion ; the flattening member being located between the body and the bendable portion , and the flattening member being configured to apply a force to the bendable portion , such that the bendable portion is flattened when the foldable terminal is in a flattened state, characterized in that the flattening member comprises two sets of limit protrusions , and each set of limit protrusions comprises a first protrusion and a second protrusion ; the first protrusions of the two sets of limit protrusions are respectively fixed on two sides of a center line (L) of the bendable portion , the second protrusions of the two sets of limit protrusions are respectively fixed on the body , and the two second protrusions are located between the two first protrusions ; when the foldable terminal is in the flattened state, the first protrusion and the second protrusion of each set of limit protrusions are in contact or partially in contact with each other with a force generated between the first protrusion and the second protrusion .
Wiper arm apparatus for motor vehicles, having a wiper arm head , which comprises a drive lever , which can be connected to a drive shaft , whereby an intermediate lever pivotally supported on the drive lever cooperates with a control lever , which control lever is arranged pivotably about a shaft on the side facing away from the intermediate lever , and with a fastening device (30; 30a) for at least one hose for supplying a cleaning fluid to a wiper arm , characterized in that the fastening device (30; 30a) is arranged in at least partial overlap with a longitudinal axis of the shaft and arranged pivotably about the longitudinal axis together with the control lever .
A light emitting die comprising: a plurality of light emitting elements , each of the plurality of light emitting elements including a pair of bond pads (N1, P1, N2, P2) coupled thereto, each of the bond pads having a rectangular shape with four orthogonal edges, and at least one of the bond pads in each pair having at least one truncated corner, each of the truncated corners forming an additional, non-orthogonal edge , the plurality of light emitting elements being arranged within the die such that at least two diagonally opposite bond pads (P1, N2) are truncated and have non-orthogonal edges that face one another and provide a space between them to enable a direct diagonal coupling of a complementary pair of diagonally opposite bond pads (P2, N1) when the die is situated on a substrate. a plurality of light emitting elements , each of the plurality of light emitting elements including a pair of bond pads (N1, P1, N2, P2) coupled thereto, each of the bond pads having a rectangular shape with four orthogonal edges, and at least one of the bond pads in each pair having at least one truncated corner, each of the truncated corners forming an additional, non-orthogonal edge , the plurality of light emitting elements being arranged within the die such that at least two diagonally opposite bond pads (P1, N2) are truncated and have non-orthogonal edges that face one another and provide a space between them to enable a direct diagonal coupling of a complementary pair of diagonally opposite bond pads (P2, N1) when the die is situated on a substrate.
A fuel injector having an injector body , a valve passage , a fuel inlet connected to the valve passage , a fuel outlet connected to the valve passage, a reciprocating valve having a central, longitudinal axis and extending through the valve passage and through the fuel outlet, and a valve seat around the fuel outlet, wherein the valve and injector body are arranged so that movement of the valve in a first direction relative to the injector body causes engagement of the valve and the valve seat and substantially prevents fuel flow past the valve seat and movement of the valve in a second direction relative to the injector body, the second direction being opposite the first direction, causes disengagement of the valve and the valve seat, characterised in that the injector body further comprises a spray-shaping surface surrounding the axis and extending from a proximal end tangent to the valve seat to a rotationally asymmetric distal end, wherein, at the distal end, (i) a first portion of the spray-shaping surface, at a first location around the axis, has a first angle (A1) relative to the axis, and (ii) a second portion of the spray-shaping surface, at a second location around the axis different from the first location, has a second angle (A2) relative to the axis, the second angle (A2) being different from the first angle (A1), wherein the first portion and the second portion of the spray-shaping surface of the injector body are each curved and convex between the proximal end and the distal end, wherein the first portion and the second portion of the spray-shaping surface of the injector body have different lengths from one another between the proximal end and the distal end, whereby the spray-shaping surface is shaped to redirect the fuel spray toward the axis at the first portion and the second portion and to create a rotationally asymmetric spray pattern by deflecting circumferential portions of the fuel spray at differing angles relative to the axis. wherein, at the distal end, (i) a first portion of the spray-shaping surface, at a first location around the axis, has a first angle (A1) relative to the axis, and (ii) a second portion of the spray-shaping surface, at a second location around the axis different from the first location, has a second angle (A2) relative to the axis, the second angle (A2) being different from the first angle (A1), wherein the first portion and the second portion of the spray-shaping surface of the injector body are each curved and convex between the proximal end and the distal end, wherein the first portion and the second portion of the spray-shaping surface of the injector body have different lengths from one another between the proximal end and the distal end, whereby the spray-shaping surface is shaped to redirect the fuel spray toward the axis at the first portion and the second portion and to create a rotationally asymmetric spray pattern by deflecting circumferential portions of the fuel spray at differing angles relative to the axis.
A component having a surface to which a sheet material having an adhesive surface is adhered, wherein an adhesive target region (R0) on a surface of the component , to which the sheet material is adhered, is provided at a peripheral edge thereof with a first region (R1) including a recess that allows a predetermined sheet material peeling tool to be insertable to a side of the adhesive surface of the sheet material , and a second region (R2) positioned in the vicinity of the first region (R1), characterized in that the second region (R2) includes a region mixedly including a part in contact with the adhesive surface and a part not in contact with the adhesive surface , the region being configured by an embossed surface or by a plurality of pyramid-shaped convex parts arranged adjacently to one another.
Cable tie having a band and having a tensioning device which is integrated in the band and which divides the band into a first and a second region, each of which regions has a toothed portion , wherein the tensioning device is designed to be pivotable and comprises a latching head and two tensioning hooks , characterized in that the latching head comprises two resilient tabs , one of which is provided with a latching projection .
Device for external orthopedic fixations, which comprises one or more frames (1; 61; 71) which have a substantially or partially annular shape and are suitable for being arranged around a limb to surround it at least partially, wherein one or more rods (2, 36; 46; 96; 106; 110) are fixed to at least one frame (1; 61; 71) of said one or more frames (1; 61; 71) by means of at least one locking mechanism (3, 6; 23; 56; 86) provided with at least two jaws (10, 11, 30, 31; 26, 27; 57, 58; 87, 88) which, when they are closed, tighten the locking mechanism (3, 6; 23; 56; 86) to a portion of the frame (1; 61;71) by exerting a prevalently axial force, wherein said jaws (10, 11, 30, 31; 26, 27; 57, 58; 87, 88) are closed by means of a cam mechanism suitable for being actuated by rotating at least one lever (12, 32; 90) pivotable relative to a first jaw of the at least two jaws and provided with one or more cam surfaces cooperating with at least one surface of the second jaw of the at least two jaws, characterized in that said at least two jaws of the locking mechanism (3, 6; 23; 56; 86) comprise one or more seats (17, 18, 37, 38; 24, 25) for one of said one or more rods (2, 36; 46; 96; 106; 110), so that when the at least two jaws (10, 11, 30, 31; 26, 27; 57, 58; 87, 88) are closed and tightened on the frame (1; 61; 71), the one or more seats (17, 18, 37, 38; 24, 25) tighten a portion of the rod (2, 36; 46; 96; 106; 110), thereby preventing a relative movement of the rod (2, 36; 46; 96; 106; 110) with respect to at least one axis of the locking mechanism (3, 6, 23; 56; 86).
A method for producing a fiber-reinforced plastic, the method comprising the following steps (i) to (iii): (i) a step of obtaining material (A) including a prepreg substrate in which reinforcing fibers that are unidirectionally arranged in parallel are impregnated with a matrix resin, and slits are formed so as to intersect the fiber axes; (ii) a step of pressing the material (A) using a pressing apparatus that applies pressure approximately uniformly in a direction orthogonal to the travel direction of the material (A), while causing the material (A) to travel in one direction, with the angles θ formed by the fiber axial directions of the reinforcing fibers of the prepreg substrate with respect to the orthogonal direction being adjusted to -20° to 20°, in a state in which the material (A) is heated to a temperature T that is higher than or equal to the melting point of the matrix resin, or is higher than or equal to the glass transition temperature if the matrix resin does not have a melting point; and (iii) a step of cooling the material (A) that has been pressed by the pressing apparatus, and thereby obtaining a fiber-reinforced plastic. (i) a step of obtaining material (A) including a prepreg substrate in which reinforcing fibers that are unidirectionally arranged in parallel are impregnated with a matrix resin, and slits are formed so as to intersect the fiber axes; (ii) a step of pressing the material (A) using a pressing apparatus that applies pressure approximately uniformly in a direction orthogonal to the travel direction of the material (A), while causing the material (A) to travel in one direction, with the angles θ formed by the fiber axial directions of the reinforcing fibers of the prepreg substrate with respect to the orthogonal direction being adjusted to -20° to 20°, in a state in which the material (A) is heated to a temperature T that is higher than or equal to the melting point of the matrix resin, or is higher than or equal to the glass transition temperature if the matrix resin does not have a melting point; and (iii) a step of cooling the material (A) that has been pressed by the pressing apparatus, and thereby obtaining a fiber-reinforced plastic.