mhurhangee/ep-ind-claims huggingface dataset:
Thermochromic material comprising at least one biopolymer, at least one natural dye and also at least one reaction medium, characterised in that all the components of the thermochromic material concern components or additives which are permitted for foodstuff, wherein this is understood to mean that the at least one biopolymer is selected from the group consisting of polyhydroxybutanoic acid, cellulose acetate, polylactic acid and also the copolymers and polymer blends thereof, the at least one natural dye is selected from the group consisting of cyanidin, delphinidin, aurantinidin, petunidin, peonidin, malvidin, pelargondin, rosinidin, europinidin, luteolinidin or mixtures hereof, the at least one reaction medium is selected from the group consisting of petroselinic acid, palmitoleic acid, myristoleic acid, oleic acid, elaidic acid, gadoleic acid, undecylenic acid, icosenic acid, vaccenic acid, cetoleic acid, erucic acid, nervonic acid, cervonic acid, clupanodonic acid, timnodonic acid, linoleic acid, calendic acid, punicic acid, eleostearic acid, arachidonic acid, formic acid, acetic acid, caprylic acid, pelargonic acid, caproic acid, laroic acid, myristic acid, palmitic acid, margaric acid, stearic acid, arachic acid, propionic acid, butyric acid, valeric acid, caproic acid, onanthic acid, behenic acid, lignoceric acid, cerotic acid, montanic acid, melissic acid, dodecylgallate, octylgallate, propylgallate, phytanic acid, isovaleric acid, etheric oils or mixtures hereof.
A film dispenser, comprising an elongated folding box having a box body consisting of a bottom, a front wall, a back wall and two end walls (11d, 11e) and having a top side, wherein said folding box is configured to store a roll of film having an adhesive film rolled up onto an elongated core, and wherein film portions of the roll of film can be extracted from the folding box through a removal gap and can be detached by means of a separating device, wherein the separating device comprises a cutting blade displaceably supported along a longitudinal guide, wherein the longitudinal guide is a recessed guide gap on the front wall or the back wand or the top side of the folding box, and wherein two parallel guide plates (39, 41) of the cutting blade are connected to one another by a centrally arranged crosspiece and a blade having two legs configured as cutting edges is embedded into said crosspiece such that the cutting edges protrude on both sides of the crosspiece, and wherein the width of the crosspiece and the distance of the guide plates (39, 41) are adjusted to the width of the guide gap and to the material thickness of the folding box adjacent to the guide gap such that the cutting blade can be displaceably guided along the guide gap, characterized in that stop elements project upwardly on the lower guide plate, which stop elements delimit the movement clearance of the cutting blade by resting on the inner surface of the folding box.
Radiation field amplifier system for a radiation field comprising an amplifying unit and a heat dissipation system with one heat spreading element (512, 514) or several heat spreading elements (512, 514), and a first optical device and a second optical device wherein said first and second optical devices are part of said heat dissipation system and said radiation field penetrates said first optical device, said amplifying unit and said second optical device in this order, wherein said one heat spreading element (512, 514) or at least one of said several heat spreading elements (512, 514) of said heat dissipation system is an element of one of said first and said second optical devices and is pressed with a contact surface within a contact area (622, 624) against said amplifying unit and said contact surface rises starting from a geometrical reference plane in direction towards said amplifying unit and a distance d between said contact surface and said geometrical reference plane attains its largest value within a central area (248, 288, 536), which is arranged inside said contact area (622, 624) and said distance d is smaller outside said central area (248, 288, 536) than inside said central area (248, 288, 536), wherein a region of penetration of said radiation field passes through said contact area (622, 624), within which said one heat spreading element (512, 514) or one of said several heat spreading elements (512, 514) is pressed against said amplifying unit, and wherein said amplifier system comprises a source of a pumping radiation field and said pumping radiation field provides pumping energy to said amplifying unit. wherein said one heat spreading element (512, 514) or at least one of said several heat spreading elements (512, 514) of said heat dissipation system is an element of one of said first and said second optical devices and is pressed with a contact surface within a contact area (622, 624) against said amplifying unit and said contact surface rises starting from a geometrical reference plane in direction towards said amplifying unit and a distance d between said contact surface and said geometrical reference plane attains its largest value within a central area (248, 288, 536), which is arranged inside said contact area (622, 624) and said distance d is smaller outside said central area (248, 288, 536) than inside said central area (248, 288, 536), wherein a region of penetration of said radiation field passes through said contact area (622, 624), within which said one heat spreading element (512, 514) or one of said several heat spreading elements (512, 514) is pressed against said amplifying unit, and wherein said amplifier system comprises a source of a pumping radiation field and said pumping radiation field provides pumping energy to said amplifying unit.
A medicament delivery device comprising: a housing, a telescopic piston rod assembly for driving a bung of a medicament container; and a drive mechanism for the telescopic piston rod assembly, wherein the telescopic piston rod assembly has an input drive telescopically coupled to a plunger for driving the bung via an intermediate coupling; wherein the intermediate coupling comprises: first and second members (45, 49) telescopically coupled to one another, the plunger being telescopically coupled to one of the first and second members (45, 49) and the input drive being telescopically coupled to the other one of the first and second members (45, 49); and a key for restraining rotation of the plunger relative to the housing; whereby as the drive mechanism drives the input drive, the plunger, first and second members (45, 49) and the input drive telescopically expand or retract with respect to one another.
A medication dispensing system, comprising: a medication dispensing device comprising a housing having a plurality of access lids; and a medication holder comprising a receptacle (205, 210) containing a plurality of individual medication holding compartments; wherein said housing includes a sliding mechanism (105, 110); characterized in that: said medication holder is configured to removably slide sideways into and out of said medication dispensing device via said sliding mechanism, whereby each of said compartments is configured to be slidable sideways to a location directly under an associated access lid in said housing. a medication dispensing device comprising a housing having a plurality of access lids; and a medication holder comprising a receptacle (205, 210) containing a plurality of individual medication holding compartments;
A coupling (123, 230, 250, 430) for a sucker rod, comprising a spinodally-hardened copper-nickel-tin alloy comprising from 8 to 20 wt% nickel, and from 5 to 11 wt% tin, up to 1 wt% total of additives, and the balance being copper, wherein the spinodally-hardened copper-nickel-tin alloy has: a 0.2% offset yield strength of at least 655 MPa (95 ksi) and a Charpy V-notch impact energy of at least 29.8 J (22 ft-lbs); or a 0.2% offset yield strength of at least 703 MPa (102 ksi) and a Charpy V-notch impact energy of at least 16.3 J (12 ft-lbs); wherein the additives are iron, magnesium, manganese, molybdenum, niobium, tantalum, vanadium, ziroconium, aluminum, zinc, and mixtures thereof. a 0.2% offset yield strength of at least 655 MPa (95 ksi) and a Charpy V-notch impact energy of at least 29.8 J (22 ft-lbs); or a 0.2% offset yield strength of at least 703 MPa (102 ksi) and a Charpy V-notch impact energy of at least 16.3 J (12 ft-lbs); wherein the additives are iron, magnesium, manganese, molybdenum, niobium, tantalum, vanadium, ziroconium, aluminum, zinc, and mixtures thereof.
System for propulsion (200, 400), comprising: - a launch tube comprising an interior cavity and an opening, - multi-phase material disposed in the interior cavity of the tube, - a membrane configured to seal the opening, - a projectile (202, 404) disposed into the interior cavity of the tube such that the projectile is surrounded by the multi-phase material, and the opening is sealed while the multi-phase material and projectile are disposed in the interior cavity of the tube so that the tube can be pressurized with a gas while the tube is sealed and prior to launching the projectile, the membrane is configured to allow equalization of pressure from outside of the launch tube and the interior cavity of the launch tube when the membrane is removed, thereby launching the projectile, the multi-phase material comprising sand. - a launch tube comprising an interior cavity and an opening, - multi-phase material disposed in the interior cavity of the tube, - a membrane configured to seal the opening, - a projectile (202, 404) disposed into the interior cavity of the tube such that the projectile is surrounded by the multi-phase material, and the opening is sealed while the multi-phase material and projectile are disposed in the interior cavity of the tube so that the tube can be pressurized with a gas while the tube is sealed and prior to launching the projectile, the membrane is configured to allow equalization of pressure from outside of the launch tube and the interior cavity of the launch tube when the membrane is removed, thereby launching the projectile, the multi-phase material comprising sand.
A membrane electrode assembly of an electrochemical device, the membrane electrode assembly comprising: a proton conductive solid electrolyte membrane (12, 13); and an electrode including Ni and an electrolyte material which contains as a primary component, at least one of a first compound having a composition represented by BaZr 1. x1 M 1 x1 O 3 (M 1 represents at least one element selected from Sc, Lu, and Yb, and 0<x 1 <1 holds) and a second compound having a composition represented by BaZr 1-x2 Tm x2 O 3 (0<x 2 <0.3 holds), wherein the solid electrolyte membrane includes a first solid electrolyte membrane which includes an electrolyte material containing as a primary component, at least one of a fourth compound having a composition represented by BaZr 1-x4 M 4 x4 O 3 (M 4 represents at least one element selected from Sc, Lu, and Yb and 0<x 4 <1 holds) and a fifth compound having a composition represented by BaZr 1-x5 Tm x5 O 3, (0<x 5 <0.3 holds), and the electrode is in contact with the first solid electrolyte membrane. a proton conductive solid electrolyte membrane (12, 13); and an electrode including Ni and an electrolyte material which contains as a primary component, at least one of a first compound having a composition represented by BaZr 1. x1 M 1 x1 O 3 (M 1 represents at least one element selected from Sc, Lu, and Yb, and 0<x 1 <1 holds) and a second compound having a composition represented by BaZr 1-x2 Tm x2 O 3 (0<x 2 <0.3 holds), wherein the solid electrolyte membrane includes a first solid electrolyte membrane which includes an electrolyte material containing as a primary component, at least one of a fourth compound having a composition represented by BaZr 1-x4 M 4 x4 O 3 (M 4 represents at least one element selected from Sc, Lu, and Yb and 0<x 4 <1 holds) and a fifth compound having a composition represented by BaZr 1-x5 Tm x5 O 3, (0<x 5 <0.3 holds), and the electrode is in contact with the first solid electrolyte membrane.
Venting device for a battery module housing, comprising at least: - a first connection element with a first fluid guiding portion and a first thread element for connecting the venting device with the battery module housing; - a first sealing element; and - a first filter element arranged in the first fluid guiding portion; wherein the venting device is adapted to be sealed against the battery module housing by the first sealing element, if the first connection element is screwed together with the battery module housing, and wherein the venting device further comprises a complementary connection element that is releasably connectable to the first connection element from a side of the first sealing element which is averted from the first thread element, with the complementary connection element having a complementary fluid guiding portion that elongates the first fluid guiding portion of the first connection element, if connected thereto, and the complementary connection element having a second sealing element that is adapted to seal the venting device against a secondary technical system that is to be fluidly connected to the battery module housing. - a first connection element with a first fluid guiding portion and a first thread element for connecting the venting device with the battery module housing; - a first sealing element; and - a first filter element arranged in the first fluid guiding portion;
A method for controlling circumferentially wrapping a cylindrical bale rotating in a bale forming chamber (12,82) of a baler (1,70) with wrapping material drawn from a roll thereof through a tensioning means, so that the bale is wrapped with the wrapping material with a predefined degree of stretch in the wrapping material in the feed direction thereof, characterised in that the method comprises: monitoring a value of a characteristic indicative of the linear speed of the wrapping material at a first location adjacent the bale, monitoring a value of a characteristic indicative of the linear speed of the wrapping material at a second location before tensioning thereof by the tensioning means, computing the value of the degree of stretch in the wrapping material in the feed direction with which the wrapping material is being applied to the bale from the monitored values of the characteristics indicative of the linear speeds of the wrapping material at the first and second locations, and altering the linear speed of the wrapping material adjacent one of the first and second locations relative to the linear speed of the wrapping material adjacent the other one of the first and second locations in response to the computed value of the degree of stretch not being equal to the value of the predefined degree of stretch until the wrapping material is being applied to the bale with the predefined degree of stretch. monitoring a value of a characteristic indicative of the linear speed of the wrapping material at a first location adjacent the bale, monitoring a value of a characteristic indicative of the linear speed of the wrapping material at a second location before tensioning thereof by the tensioning means, computing the value of the degree of stretch in the wrapping material in the feed direction with which the wrapping material is being applied to the bale from the monitored values of the characteristics indicative of the linear speeds of the wrapping material at the first and second locations, and altering the linear speed of the wrapping material adjacent one of the first and second locations relative to the linear speed of the wrapping material adjacent the other one of the first and second locations in response to the computed value of the degree of stretch not being equal to the value of the predefined degree of stretch until the wrapping material is being applied to the bale with the predefined degree of stretch.
Method for producing a raw material intended for the manufacture of a polyester and/or polyolefin film, said raw material containing lamellar particles based on at least one metal and/or at least one metal oxide, characterized in that - lamellar particles have a form factor F defined as the ratio of the largest dimension in the plane of the particle to its thickness (e) such as: 10 ≤ F ≤ 1000; 0,01 μm ≤ L ≤ 500 μm; and 0,001 μm ≤ e ≤ 1 μm, dimension L and thickness e being determined by transmission electron microscopy, - and in that it comprises the following steps: A. grinding of at least one coated film comprising at least one polyester and/or polyolefin film and at least one coating film based on at least one metal and/or at least one metal oxide, to obtain flakes, B. optionally compacting the flakes resulting from grinding to form agglomerates, C. melting of the flakes or agglomerates resulting from compacting, D. cooling/solidification of this molten mass, E. transformation of the solidified mass into discrete elements constituting the raw material, preferably into granules. - lamellar particles have a form factor F defined as the ratio of the largest dimension in the plane of the particle to its thickness (e) such as: 10 ≤ F ≤ 1000; 0,01 μm ≤ L ≤ 500 μm; and 0,001 μm ≤ e ≤ 1 μm, dimension L and thickness e being determined by transmission electron microscopy, - and in that it comprises the following steps: A. grinding of at least one coated film comprising at least one polyester and/or polyolefin film and at least one coating film based on at least one metal and/or at least one metal oxide, to obtain flakes, B. optionally compacting the flakes resulting from grinding to form agglomerates, C. melting of the flakes or agglomerates resulting from compacting, D. cooling/solidification of this molten mass, E. transformation of the solidified mass into discrete elements constituting the raw material, preferably into granules. A. grinding of at least one coated film comprising at least one polyester and/or polyolefin film and at least one coating film based on at least one metal and/or at least one metal oxide, to obtain flakes, B. optionally compacting the flakes resulting from grinding to form agglomerates, C. melting of the flakes or agglomerates resulting from compacting, D. cooling/solidification of this molten mass, E. transformation of the solidified mass into discrete elements constituting the raw material, preferably into granules.
A power conversion circuit, comprising: a circuit board including a plurality of layers on which circuit patterns (111a-111c, 112a-112c, 211a-211d) are formed; a plurality of semiconductor switching elements (102a-102d), which are connected to the circuit patterns (111a-111c, 112a-112c, 211a-211d) of the circuit board, and are configured to perform switching for power conversion, each semiconductor switching element (102a-102d) comprising a drain, a gate and a source; and a plurality of drivers (103a-103d), each being connected to a respective one of the plurality of semiconductor switching elements (102a-102d), to drive the plurality of semiconductor switching elements (102a-102d), wherein, in the circuit board, a plurality of isolated control ground patterns (112a-112c) are provided for the plurality of semiconductor switching elements (102a-102d), each isolated control ground pattern (112a-112c) having a form of a solid pattern around the drivers (103a-103d), and providing connection to an isolated power supply, and wherein the plurality of isolated control ground patterns (112a-112c) are connected to sources of the plurality of semiconductor switching elements (102a-102d), are connected to terminals of the drivers (103a-103d) and are arranged so as not to overlap one another in plan view in a stacking direction of the plurality of layers of the circuit board. a circuit board including a plurality of layers on which circuit patterns (111a-111c, 112a-112c, 211a-211d) are formed; a plurality of semiconductor switching elements (102a-102d), which are connected to the circuit patterns (111a-111c, 112a-112c, 211a-211d) of the circuit board, and are configured to perform switching for power conversion, each semiconductor switching element (102a-102d) comprising a drain, a gate and a source; and a plurality of drivers (103a-103d), each being connected to a respective one of the plurality of semiconductor switching elements (102a-102d), to drive the plurality of semiconductor switching elements (102a-102d), wherein, in the circuit board, a plurality of isolated control ground patterns (112a-112c) are provided for the plurality of semiconductor switching elements (102a-102d), each isolated control ground pattern (112a-112c) having a form of a solid pattern around the drivers (103a-103d), and providing connection to an isolated power supply, and wherein the plurality of isolated control ground patterns (112a-112c) are connected to sources of the plurality of semiconductor switching elements (102a-102d), are connected to terminals of the drivers (103a-103d) and are arranged so as not to overlap one another in plan view in a stacking direction of the plurality of layers of the circuit board.
A fine cellulose fiber composite comprising fine cellulose fibers having a carboxy group and an amine having an ethylene oxide/propylene oxide (EO/PO) copolymer moiety, the fine cellulose fibers being bound with the amine at the carboxy group to form a salt, wherein the fine cellulose fibers have a carboxy group content of mmol/g or more, and wherein the molecular weight of the EO/PO copolymer moiety is from 700 to 10,000, and wherein a PO content ratio in the EO/PO copolymer moiety is from 1 to 70% by mol.