mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method of a tank including a tubular body portion , and dome-shaped side end portions formed on both sides of the body portion, the manufacturing method comprising: forming a tubular compact serving as at least part of the body portion from one fiber reinforced resin sheet by winding the fiber reinforced resin sheet including reinforced fibers impregnated with thermoplastic resin several times around a peripheral surface of a core from a direction perpendicular to an axial center of the core in a state where the thermoplastic resin is melted, characterized in that the fiber reinforced resin sheet including reinforced fibers impregnated with thermoplastic resin is prepared in advance, the fiber reinforced resin sheet is subsequently heated to a temperature of a softening point of the thermoplastic resin or higher before being wound on the peripheral surface of the core , and, in a state where the thermoplastic resin in the fiber reinforced resin sheet is melted, the fiber reinforced resin sheet is wound several times around the peripheral surface of the core . forming a tubular compact serving as at least part of the body portion from one fiber reinforced resin sheet by winding the fiber reinforced resin sheet including reinforced fibers impregnated with thermoplastic resin several times around a peripheral surface of a core from a direction perpendicular to an axial center of the core in a state where the thermoplastic resin is melted, characterized in that the fiber reinforced resin sheet including reinforced fibers impregnated with thermoplastic resin is prepared in advance, the fiber reinforced resin sheet is subsequently heated to a temperature of a softening point of the thermoplastic resin or higher before being wound on the peripheral surface of the core , and, in a state where the thermoplastic resin in the fiber reinforced resin sheet is melted, the fiber reinforced resin sheet is wound several times around the peripheral surface of the core .
A delivery system for use in a method for relaxing fibers within a target connective tissue of a subject comprising (i) a liposome and (ii) a proteolytic enzyme or an effector thereof directed to Type I collagen, wherein the liposome encapsulates the proteolytic enzyme or effector thereof at a concentration effective to cause relaxation of fibers at said target connective tissue, and wherein the effector is a proteolytic enzyme precursor.
A method of servicing a wellbore in a subterranean formation comprising: preparing an invert emulsion comprising an aqueous fluid, an oleaginous fluid, and an emulsifier composition (EC), wherein the emulsifier composition comprises an emulsifier, a diluent, and a thinner, wherein the thinner comprises a fatty acid amide; and placing the invert emulsion in the wellbore. preparing an invert emulsion comprising an aqueous fluid, an oleaginous fluid, and an emulsifier composition (EC), wherein the emulsifier composition comprises an emulsifier, a diluent, and a thinner, wherein the thinner comprises a fatty acid amide; and placing the invert emulsion in the wellbore.
Closure for closing a door, in particular a door of a high-temperature appliance, having a closure pin and a latch , which can be locked on the closure pin , wherein the closure pin has two locking structures , which are spaced apart axially along a main axis (A) of the closure pin and on which the latch can be locked optionally in a closed position and a partially open venting position, wherein the closure pin has at least one securing structure for securing the latch during transfer between the locking structures , wherein the closure pin and the latch are designed for rotation in relation to one another, and wherein at least three rotary positions (D1, D2, D3) can be reached by the closure pin being rotated, for the purpose of setting three different functional positions of the closure, characterized in that a first rotary position (D1) of the closure pin corresponds to an actuating position of the latch , in which the latch can be unlocked from a locking structure by means of a latch-side actuating element , and a second rotary position (D2) of the closure pin corresponds to a blocking position of the latch , in which the latch can be blocked by at least one locking structure , wherein, in the blocking position, at least one locking structure is oriented such that the latch cannot be released by rotation.
A composition for printing onto a printable medium comprising magnetic-color-changeable microcapsules , wherein the magnetic-color-changeable microcapsules is a microcapsule including a curable solvent in which electrically charged particles are dispersed, wherein a spacing between the particles is controllable by application of a magnetic field, and wherein a wavelength of light reflected from the particles varies depending on a change in the spacing, the curable solvent includes a resin curable by application of energy, the energy being any one selected from among thermal energy, light energy, and chemical energy, characterized in that the resin has a weight average molecular weight of about 100 to about 1,000, and the curable solvent has a viscosity of about 5 ∗ 10 -3 Pa ∗ s to about 5 ∗ 10 -2 Pa ∗ s (50 cps) measured at about 25°C.
A multi-phase hand treatment device comprising: i) an active cavity for housing a user's hands and forearms; ii) a double inlet for insertion of the user's hands and forearms into the active cavity; iii) at least one active product dispenser and at least one water distribution nozzle ; iv) a treatment assembly comprising two rotating brushes ; characterized in that the treatment assembly further comprises a drying blower ; v) said assembly being movable in the active cavity between a position remote from the double inlet of the cavity for treatment of the fingers and a position close to the double inlet of the cavity for treatment of the forearms. i) an active cavity for housing a user's hands and forearms; ii) a double inlet for insertion of the user's hands and forearms into the active cavity; iii) at least one active product dispenser and at least one water distribution nozzle ; iv) a treatment assembly comprising two rotating brushes ; characterized in that the treatment assembly further comprises a drying blower ; v) said assembly being movable in the active cavity between a position remote from the double inlet of the cavity for treatment of the fingers and a position close to the double inlet of the cavity for treatment of the forearms.
An assembly for a tire inflation system , comprising: a spindle including a fluid conduit therethrough, a rotary joint spindle coupled with said spindle , said rotary joint spindle having a fluid conduit therethrough in fluid communication with said spindle fluid conduit , and a hub rotatably disposed about said spindle , a fluid collector ring coupled with said hub for rotation therewith, wherein said fluid collector ring rotatably disposed at least partially about said rotary joint spindle , and a hub cap coupled with an outboard surface of said fluid collector ring for rotation therewith, characterised in that said hub cap is disposed at least partially about said fluid collector ring . a spindle including a fluid conduit therethrough, a rotary joint spindle coupled with said spindle , said rotary joint spindle having a fluid conduit therethrough in fluid communication with said spindle fluid conduit , and a hub rotatably disposed about said spindle , a fluid collector ring coupled with said hub for rotation therewith, wherein said fluid collector ring rotatably disposed at least partially about said rotary joint spindle , and a hub cap coupled with an outboard surface of said fluid collector ring for rotation therewith, characterised in that said hub cap is disposed at least partially about said fluid collector ring .
Lamp having a framework structure and a lighting unit held by said framework structure , wherein at least a portion of a cover of the lamp is formed by a covering which is made of a flexible material and is fixed at its edge region to the framework structure , wherein at least one shaping element, to which the covering material is likewise fixed, is disposed on the framework structure , and wherein the shaping element is adjustable, characterized in that the shaping element projects beyond both sides of a plane (E) defined by the framework structure , wherein the material spans both sides of the framework structure and on each side is fixed to the shaping element.
A method of preparing stable, natural blue colors comprising the steps: (a) forming a mixture comprising (i) a first component, wherein said first component is the juice from the fruit of Huito, Genipa americana, wherein said juice contains sufficient genepin or derivatives of genepin, including genepin gentiobioside, geniposide, geniposidic acid, and gardenoside, capable of reacting with other compounds to produce a colored product; (ii) a second component, wherein said second component is an edible material selected to provide other components resulting in the desired color, and wherein said second component comprises nitrogenous compounds selected from the group consisting of amino acids, polypeptides, proteins, compounds with one or more primary amine groups, and combinations thereof; (b) co-processing said mixture at a pH in the range of 3 to 8; and (c) applying a heat treatment sufficient to stabilize the mixture against microbial growth, oxidation, organoleptic deterioration and provide color intensity. (a) forming a mixture comprising (i) a first component, wherein said first component is the juice from the fruit of Huito, Genipa americana, wherein said juice contains sufficient genepin or derivatives of genepin, including genepin gentiobioside, geniposide, geniposidic acid, and gardenoside, capable of reacting with other compounds to produce a colored product; (ii) a second component, wherein said second component is an edible material selected to provide other components resulting in the desired color, and wherein said second component comprises nitrogenous compounds selected from the group consisting of amino acids, polypeptides, proteins, compounds with one or more primary amine groups, and combinations thereof; (i) a first component, wherein said first component is the juice from the fruit of Huito, Genipa americana, wherein said juice contains sufficient genepin or derivatives of genepin, including genepin gentiobioside, geniposide, geniposidic acid, and gardenoside, capable of reacting with other compounds to produce a colored product; (ii) a second component, wherein said second component is an edible material selected to provide other components resulting in the desired color, and wherein said second component comprises nitrogenous compounds selected from the group consisting of amino acids, polypeptides, proteins, compounds with one or more primary amine groups, and combinations thereof; (b) co-processing said mixture at a pH in the range of 3 to 8; and (c) applying a heat treatment sufficient to stabilize the mixture against microbial growth, oxidation, organoleptic deterioration and provide color intensity.
An ion trap system, comprising: a laser coupled to a fiber bundle comprising a plurality of fibers , wherein the fiber bundle is configured to receive light from the laser and to split the light from the laser into the plurality of fibers , wherein the plurality of fibers are separated so as to form a plurality of separated fibers; a preparation cell coupled to each of the separated fibers, the preparation cell comprising a plurality of electro-optical modulators, EOMs, wherein each EOM is coupled to a different separated fiber of the plurality of separated fibers, wherein each EOM is configured to prepare a state of laser light received by the separated fiber it is coupled to such that the prepared laser light can be directed at an ion trapped in an ion trap to cause the ion to fluoresce, and wherein, for each EOM, the state of laser light is prepared by at least one of setting a frequency, setting a polarization, or shuttering the laser light passing through the separated fiber that the EOM is coupled to; and a vacuum port fiber bundle to receive the plurality of separated fibers after the plurality of separated fibers have exited the preparation cell , and to couple the fibers into an alignment cell the system further comprising an ion trap within the alignment cell, wherein the alignment cell is configured to utilize each of the plurality of separated fibers to focus corresponding laser light from that fiber on the ion trap to allow laser light of a particular separated fiber to illuminate a particular ion trapped in the ion trap. a laser coupled to a fiber bundle comprising a plurality of fibers , wherein the fiber bundle is configured to receive light from the laser and to split the light from the laser into the plurality of fibers , wherein the plurality of fibers are separated so as to form a plurality of separated fibers; a preparation cell coupled to each of the separated fibers, the preparation cell comprising a plurality of electro-optical modulators, EOMs, wherein each EOM is coupled to a different separated fiber of the plurality of separated fibers, wherein each EOM is configured to prepare a state of laser light received by the separated fiber it is coupled to such that the prepared laser light can be directed at an ion trapped in an ion trap to cause the ion to fluoresce, and wherein, for each EOM, the state of laser light is prepared by at least one of setting a frequency, setting a polarization, or shuttering the laser light passing through the separated fiber that the EOM is coupled to; and a vacuum port fiber bundle to receive the plurality of separated fibers after the plurality of separated fibers have exited the preparation cell , and to couple the fibers into an alignment cell the system further comprising an ion trap within the alignment cell, wherein the alignment cell is configured to utilize each of the plurality of separated fibers to focus corresponding laser light from that fiber on the ion trap to allow laser light of a particular separated fiber to illuminate a particular ion trapped in the ion trap.
Adjustable headlight system for exterior vehicle lighting, comprising: a circuit board unit comprising a circuit board and a light source which is arranged on the circuit board , the light source being configured to generate light of the headlights, a heat sink which has a heat contact surface with which the circuit board unit is in heat-conductive contact, the headlight system being configured for a guided movement of the circuit board unit relative to the heat sink , the guided movement being guided by means of the heat contact surface , the headlight system further comprising a fixing element which, during the guided movement, presses the circuit board unit against the heat contact surface , and the headlight system further comprising a circuit board actuator for adjusting a position of the circuit board unit by means of the guided movement, characterized in that the headlight system further comprises a circuit board restoring component which is configured to generate a restoring force for an actuating force of the circuit board actuator , the circuit board restoring component being formed integrally with the fixing element . a circuit board unit comprising a circuit board and a light source which is arranged on the circuit board , the light source being configured to generate light of the headlights, a heat sink which has a heat contact surface with which the circuit board unit is in heat-conductive contact, the headlight system being configured for a guided movement of the circuit board unit relative to the heat sink , the guided movement being guided by means of the heat contact surface , the headlight system further comprising a fixing element which, during the guided movement, presses the circuit board unit against the heat contact surface , and the headlight system further comprising a circuit board actuator for adjusting a position of the circuit board unit by means of the guided movement, characterized in that the headlight system further comprises a circuit board restoring component which is configured to generate a restoring force for an actuating force of the circuit board actuator , the circuit board restoring component being formed integrally with the fixing element .
A drill bit assembly for fluid-operated percussion drill tools, comprising: a percussion bit having a head portion formed with an axially extending shank , a first plurality of axially extending splines on the shank slideably engageable with a first plurality of complementary splines formed internally of a drive chuck whereby rotational drive from the chuck may be transmitted to the shank; and engagement means on the chuck adapted for connecting the chuck to a drive means of the fluid-operated percussion drill tool; and wherein during drilling, the bit and the chuck are held in a first relative orientation in which the bit is retained in the chuck, and characterised in that the bit is moveable axially relative to the chuck to a bit removal position, in which the bit is rotatable relative to the chuck to a second relative orientation in which the bit is removable from the chuck, and wherein the bit is moveable to the bit removal position while the chuck is fully engaged with the drive means such that the bit is removable from the drill bit assembly while the chuck is fully engaged with the drive means. a percussion bit having a head portion formed with an axially extending shank , a first plurality of axially extending splines on the shank slideably engageable with a first plurality of complementary splines formed internally of a drive chuck whereby rotational drive from the chuck may be transmitted to the shank; and engagement means on the chuck adapted for connecting the chuck to a drive means of the fluid-operated percussion drill tool; and wherein during drilling, the bit and the chuck are held in a first relative orientation in which the bit is retained in the chuck, and characterised in that the bit is moveable axially relative to the chuck to a bit removal position, in which the bit is rotatable relative to the chuck to a second relative orientation in which the bit is removable from the chuck, and wherein the bit is moveable to the bit removal position while the chuck is fully engaged with the drive means such that the bit is removable from the drill bit assembly while the chuck is fully engaged with the drive means.
A fused deposition modelling process for manufacturing an object, the process comprising the following steps: a) selecting a feedstock material comprising one or more polymeric material selected from: i) a polymeric material (A) having a repeat unit of formula -O-Ph-O-Ph-CO-Ph- I and a repeat unit of formula -O-Ph-Ph-O-Ph-CO-Ph II wherein Ph represents a phenylene moiety; and/or ii) a polymeric material (B) having a repeat unit of formula -X-Ph-(X-Ph-) n X-Ph-CO-Ph- III and a repeat unit of formula -X-Y-W-Ph-Z- IV wherein Ph represents a phenylene moiety; each X independently represents an oxygen or sulphur atom; n represents an integer of 1 or 2; Y is selected from a phenylene moiety, a -Ph-Ph moiety and a naphthalenyl moiety; W is a carbonyl group, an oxygen or sulphur atom, Z is selected from -X-Ph-SO 2 -Ph- -X-Ph-SO 2 -Y-SO 2 -Ph- and -CO-Ph-; b) melting the feedstock material; and c) extruding the feedstock material to form a plurality of layers that define the object. a) selecting a feedstock material comprising one or more polymeric material selected from: i) a polymeric material (A) having a repeat unit of formula -O-Ph-O-Ph-CO-Ph- I and a repeat unit of formula -O-Ph-Ph-O-Ph-CO-Ph II wherein Ph represents a phenylene moiety; and/or ii) a polymeric material (B) having a repeat unit of formula -X-Ph-(X-Ph-) n X-Ph-CO-Ph- III and a repeat unit of formula -X-Y-W-Ph-Z- IV wherein Ph represents a phenylene moiety; each X independently represents an oxygen or sulphur atom; n represents an integer of 1 or 2; Y is selected from a phenylene moiety, a -Ph-Ph moiety and a naphthalenyl moiety; W is a carbonyl group, an oxygen or sulphur atom, Z is selected from -X-Ph-SO 2 -Ph- -X-Ph-SO 2 -Y-SO 2 -Ph- and -CO-Ph-; i) a polymeric material (A) having a repeat unit of formula -O-Ph-O-Ph-CO-Ph- I and a repeat unit of formula -O-Ph-Ph-O-Ph-CO-Ph II wherein Ph represents a phenylene moiety; and/or ii) a polymeric material (B) having a repeat unit of formula -X-Ph-(X-Ph-) n X-Ph-CO-Ph- III and a repeat unit of formula -X-Y-W-Ph-Z- IV wherein Ph represents a phenylene moiety; each X independently represents an oxygen or sulphur atom; n represents an integer of 1 or 2; Y is selected from a phenylene moiety, a -Ph-Ph moiety and a naphthalenyl moiety; W is a carbonyl group, an oxygen or sulphur atom, Z is selected from -X-Ph-SO 2 -Ph- -X-Ph-SO 2 -Y-SO 2 -Ph- and -CO-Ph-; b) melting the feedstock material; and c) extruding the feedstock material to form a plurality of layers that define the object.
An assembled camshaft for an internal combustion engine, wherein the camshaft comprises a base shaft and an external toothing which extends at least in certain portions axially along the base shaft , and comprising at least one hub with an internal toothing which correlates with the external toothing of the base shaft such that the hub is connected rotationally conjointly and axially non-displaceably to the base shaft , wherein the external toothing has at least one form-fit subregion , which extends axially at least in certain portions along the base shaft , or one force-fit subregion in order for the hub to be arranged at least in a form-fitting or force-fitting manner, and wherein at least the form-fit subregion or the force-fit subregion is adjoined by at least one alignment region which extends at least in certain portions axially along the base shaft and which serves for the angular alignment of the hub , wherein the external toothing at least of the one form-fit subregion or of the force-fit subregion comprises at least two tooth spaces which are formed between the teeth and which have mutually different root circle diameters (WDF large , WDF small ), and the internal toothing of the hub comprises at least two teeth which correlate with the different root circle diameters (WDF large , WDF small ) and which have mutually different tip circle diameters (NDK large , NDK small ), and wherein that tooth of the hub which has a second tip circle diameter (NDK small ) forms a sliding fit with that tooth space of the base shaft which has a second root circle diameter (WDF small ), and that tooth of the hub which has a first tip circle diameter (NDK large ) forms a sliding fit with that tooth space of the base shaft which has a first root circle diameter (WDF large ), and wherein at least the form-fit connection or the force-fit connection of the hub to the base shaft for the axial fixing of the hub exists owing to an interference-fit connection formed between at least that tooth space of the external toothing of the base shaft which has a first root circle diameter (WDF large ) and that non-correlating tooth of the internal toothing of the hub which has a second tip circle diameter (NDK small ).