mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating an electrochromic device, the method comprising: (a) forming a cathodically coloring layer comprising a cathodically coloring electrochromic material; (b) forming an anodically coloring layer comprising an anodically coloring electrochromic material and one or more additives, wherein the cathodically coloring layer and the anodically coloring layer are in contact with one another to form a stack, wherein the one or more additives are selected from the group consisting of: arsenic (As), gold (Au), beryllium (Be), bismuth (Bi), cadmium (Cd), cesium (Cs), europium (Eu), mercury (Hg), neodymium (Nd), osmium (Os), protactinium (Pa), lead (Pb), palladium (Pd), promethium (Pm), polonium (Po), praseodymium (Pr), platinum (Pt), radium (Ra), rubidium (Rb), rhenium (Re), scandium (Sc), selenium (Se), samarium (Sm), terbium (Tb), technetium (Tc), tellurium (Te), thorium (Th), thallium (Tl), and uranium, and combinations thereof; and (c) exposing at least one of the cathodically coloring layer and the anodically coloring layer to lithium, wherein at least one of the cathodically coloring layer and the anodically coloring layer comprise a superstoichiometric oxygen portion and a non-superstoichiometric oxygen portion. (a) forming a cathodically coloring layer comprising a cathodically coloring electrochromic material; (b) forming an anodically coloring layer comprising an anodically coloring electrochromic material and one or more additives, wherein the cathodically coloring layer and the anodically coloring layer are in contact with one another to form a stack, wherein the one or more additives are selected from the group consisting of: arsenic (As), gold (Au), beryllium (Be), bismuth (Bi), cadmium (Cd), cesium (Cs), europium (Eu), mercury (Hg), neodymium (Nd), osmium (Os), protactinium (Pa), lead (Pb), palladium (Pd), promethium (Pm), polonium (Po), praseodymium (Pr), platinum (Pt), radium (Ra), rubidium (Rb), rhenium (Re), scandium (Sc), selenium (Se), samarium (Sm), terbium (Tb), technetium (Tc), tellurium (Te), thorium (Th), thallium (Tl), and uranium, and combinations thereof; and wherein the cathodically coloring layer and the anodically coloring layer are in contact with one another to form a stack, wherein the one or more additives are selected from the group consisting of: arsenic (As), gold (Au), beryllium (Be), bismuth (Bi), cadmium (Cd), cesium (Cs), europium (Eu), mercury (Hg), neodymium (Nd), osmium (Os), protactinium (Pa), lead (Pb), palladium (Pd), promethium (Pm), polonium (Po), praseodymium (Pr), platinum (Pt), radium (Ra), rubidium (Rb), rhenium (Re), scandium (Sc), selenium (Se), samarium (Sm), terbium (Tb), technetium (Tc), tellurium (Te), thorium (Th), thallium (Tl), and uranium, and combinations thereof; and (c) exposing at least one of the cathodically coloring layer and the anodically coloring layer to lithium,
A bracket for a net curtain rod, which is designed in one piece as a multiply angled profile and has a fastening leg and a supporting leg which are connected to one another in an essentially L-shaped manner, wherein the fastening leg may be inserted between a glass pane and a rubber seal of a window or a door, so that the supporting leg abuts against the inside of the glazing bead of a window or door frame, wherein the supporting leg is formed integrally with a substantially L-shaped extension section at the end opposite to the fastening leg, which extension section comprises a contact section and a rod receiving section, wherein the contact section is connected to the supporting leg, and wherein the rod receiving section is formed with a fastening device for the curtain rod, characterised in that the fastening leg, the supporting leg, the contact section and the rod receiving section have the same constant thickness and width and are flush with one another, the fastening leg having a length (L 11) and the rod receiving section having a length (L 14), the length of the rod receiving section (L 14) being shorter than the length of the fastening leg (L 11), and wherein the fastening leg for the curtain rod on the rod receiving section is a receiving recess with an upwardly open recess for inserting an end section of the curtain rod.
Method for manufacturing a food product in the form of a rod, said method comprising the following steps: - obtaining (S1, S2, S3) at least three strips (1, 2, 3) of food dough, - scarification of the first strip of food dough and the second strip of food dough, - winding of said first strip of scarified food dough on itself in the direction of its width, - winding of said second strip of scarified food dough around the first strip of food dough wound on itself, - winding of the third strip of unscarified food dough, forming an envelope, around the two strips (1, 2) wound to form a roll, - cutting of the roll to form rods. - obtaining (S1, S2, S3) at least three strips (1, 2, 3) of food dough, - scarification of the first strip of food dough and the second strip of food dough, - winding of said first strip of scarified food dough on itself in the direction of its width, - winding of said second strip of scarified food dough around the first strip of food dough wound on itself, - winding of the third strip of unscarified food dough, forming an envelope, around the two strips (1, 2) wound to form a roll, - cutting of the roll to form rods.
A two-dimensional antenna array, comprising: a reflection panel, at least two column antenna arrays (11, 12), at least one common feeding network, and at least two array feeding networks (21, 22), wherein the at least two column antenna arrays (11, 12) are on the reflection panel, each of the at least two column antenna arrays (11, 12) comprises at least one independent radiation unit (111, 113, 115) and at least one common radiation unit (112, 114), each of the at least two column antenna arrays (11, 12) is corresponding to one array feeding network (21, 22), each independent radiation unit (111, 113, 115) in each of the at least two column antenna arrays (11, 12) is connected to the array feeding network (21, 22) corresponding to the at least two column antenna arrays (11, 12), each common radiation unit (112, 114) in each of the at least two column antenna arrays (11, 12) is connected to the common feeding network, and the common feeding network is connected to the array feeding networks (21, 22) corresponding to each of the at least two column antenna arrays (11, 12), wherein the at least two column antenna arrays (11, 12) are neighboring antenna arrays, and wherein the at least two column antenna arrays (11, 12) are arranged parallel to each other along an axis of the reflection panel. a reflection panel, at least two column antenna arrays (11, 12), at least one common feeding network, and at least two array feeding networks (21, 22), wherein the at least two column antenna arrays (11, 12) are on the reflection panel, each of the at least two column antenna arrays (11, 12) comprises at least one independent radiation unit (111, 113, 115) and at least one common radiation unit (112, 114), each of the at least two column antenna arrays (11, 12) is corresponding to one array feeding network (21, 22), each independent radiation unit (111, 113, 115) in each of the at least two column antenna arrays (11, 12) is connected to the array feeding network (21, 22) corresponding to the at least two column antenna arrays (11, 12), each common radiation unit (112, 114) in each of the at least two column antenna arrays (11, 12) is connected to the common feeding network, and the common feeding network is connected to the array feeding networks (21, 22) corresponding to each of the at least two column antenna arrays (11, 12), wherein the at least two column antenna arrays (11, 12) are neighboring antenna arrays, and wherein the at least two column antenna arrays (11, 12) are arranged parallel to each other along an axis of the reflection panel.
Handheld electric machine tool for turning tools, comprising a housing, comprising a rotary drive which is accommodated in the housing and comprising at least two receiving devices (22, 23) for in each case one turning tool (24, 25), which receiving devices can be alternately coupled to the rotary drive, wherein the at least two receiving devices (22, 23) are arranged on a turret head and the alternate coupling of the receiving devices (22, 23) to the rotary drive is performed by pivoting or repositioning the turret head. to one of two working positions which can be prespecified on the housing, characterized in that at least one receiving device has an associated torque adjuster which is provided to preselect a tightening torque for screwing purposes, with which tightening torque a screw which is driven in by a screwdriver is intended to be tightened, and which can be activated by coupling of the receiving device and the rotary drive, wherein the torque adjuster is arranged in the housing and switching means which correspond to one another are provided on the housing and on the turret head and, when the receiving device which is associated with the torque adjuster moves to its working position, apply the torque which is preselected on the torque adjuster to the rotary drive, or the torque adjuster is arranged in the turret head.
A sample support for a surface-assisted laser desorption/ionization method comprising: a substrate in which a plurality of through-holes passing from one surface thereof to the other surface thereof are provided; a conductive layer formed of a conductive material and configured to cover at least the one surface; and a frame (22, 122) mounted on an outer edge of the substrate, wherein the through-holes have a width of 1 to 700 nm, the substrate has a thickness of 1 to 50 μm, and the plurality of through-holes are provided such that a sample can be moved/raised from the other surface to the one surface by a capillary phenomenon. a substrate in which a plurality of through-holes passing from one surface thereof to the other surface thereof are provided; a conductive layer formed of a conductive material and configured to cover at least the one surface; and a frame (22, 122) mounted on an outer edge of the substrate, wherein the through-holes have a width of 1 to 700 nm, the substrate has a thickness of 1 to 50 μm, and the plurality of through-holes are provided such that a sample can be moved/raised from the other surface to the one surface by a capillary phenomenon.
A position measurement device (100, 200) for measuring a position of a pen, comprising: a first sub-loop unit (111, 211) that includes at least one loop (X1, X2, X3) configured to apply an electrical current and measure an electromagnetic field change emitted from the pen; a second sub-loop unit (112, 212) that includes at least one loop (Y1, Y2, Y3) configured to measure an electromagnetic field change emitted from the pen; and a control unit (120, 240) configured to determine one loop of the first sub-loop unit as a transmission signal transmitting loop to thereby apply the electrical current to the transmission signal transmitting loop, and measure the position of the pen based on the electromagnetic field change measured by each of the at least one loop (X1, X2, X3) of the first sub-loop unit and each of the at least one loop (Y1, Y2, Y3) of the second sub-loop unit (112, 212), wherein the transmission signal transmitting loop emits a transmission signal based on the applied electrical current. a first sub-loop unit (111, 211) that includes at least one loop (X1, X2, X3) configured to apply an electrical current and measure an electromagnetic field change emitted from the pen; a second sub-loop unit (112, 212) that includes at least one loop (Y1, Y2, Y3) configured to measure an electromagnetic field change emitted from the pen; and a control unit (120, 240) configured to determine one loop of the first sub-loop unit as a transmission signal transmitting loop to thereby apply the electrical current to the transmission signal transmitting loop, and measure the position of the pen based on the electromagnetic field change measured by each of the at least one loop (X1, X2, X3) of the first sub-loop unit and each of the at least one loop (Y1, Y2, Y3) of the second sub-loop unit (112, 212), wherein the transmission signal transmitting loop emits a transmission signal based on the applied electrical current.
A coil assembly (319, 500, 600, 700, 2700) for radiating radio frequency energy and receiving radio frequency energy during the acquisition of magnetic resonance data, wherein the coil assembly has a first surface (315, 514) configured for being directed towards an imaging zone of a magnetic resonance imaging system (300, 400), wherein the coil assembly further comprises at least one coil element (317, 502, 504, 702, 800, 1602, 1604, 2302, 2402, 2502, 2702), wherein the coil assembly further comprises a radio frequency shield (319, 506, 704, 1700, 1800, 1900, 2000, 2200, 2304, 2704) switchable between a radio-frequency blocking state and a radio-frequency transparent state, wherein the at least one coil element is between the first surface and the radio frequency shield, wherein the radio frequency shield comprises at least two conductive elements (322, 802, 804), wherein the radio frequency shield comprises a radio frequency switch (324, 2202) configured for electrically connecting the at least two conductive elements when the radio frequency shield is in the radio-frequency blocking state, wherein the radio frequency switch is further configured for electrically disconnecting the at least two conductive elements when the radio frequency shield is in the radio-frequency transparent state, wherein the coil assembly further comprises at least one receiver coil (502, 1602) configured for receiving radio frequency transmissions from atomic spins within the imaging zone during the acquisition of the magnetic resonance data, wherein the at least one coil element is a transmitter coil element and is located between the radio frequency shield and the at least one receiver coil, wherein the coil assembly has a second surface configured for receiving a portion of the subject, wherein the second surface is directed away from the imaging zone, and wherein the radio frequency shield is between the second surface and the at least one coil element.
A shieldable needle device comprising: a needle cannula having proximal and distal ends; a hub supporting at least a portion of the needle cannula; a tip guard axially movable along the needle cannula from a proximal position adjacent the hub such that at least the distal end of the needle cannula extends through an opening defined in the tip guard to a distal position where the tip guard protectively surrounds the distal end of the needle cannula; and a pair of wings extending laterally from opposing sides of the tip guard and connected to the hub, the pair of wings transitionable between a first position and a second position, wherein transition of the pair of wings from the first position to the second position advances the tip guard from the proximal position to the distal position, and biases the needle cannula to an offset position with respect to the opening of the tip guard preventing the needle cannula from being reinserted through the tip guard after the tip guard has been transitioned to the distal position. a needle cannula having proximal and distal ends; a hub supporting at least a portion of the needle cannula; a tip guard axially movable along the needle cannula from a proximal position adjacent the hub such that at least the distal end of the needle cannula extends through an opening defined in the tip guard to a distal position where the tip guard protectively surrounds the distal end of the needle cannula; and a pair of wings extending laterally from opposing sides of the tip guard and connected to the hub, the pair of wings transitionable between a first position and a second position, wherein transition of the pair of wings from the first position to the second position advances the tip guard from the proximal position to the distal position, and biases the needle cannula to an offset position with respect to the opening of the tip guard preventing the needle cannula from being reinserted through the tip guard after the tip guard has been transitioned to the distal position.
Pressure control valve arrangement for controlling the fluid pressure in an ABS brake system of a vehicle in such a way that, while there is a tendency of individual wheels of the vehicle to lock, the brake pressure in at least one associated brake cylinder can be adaptively adjusted, wherein at least one diaphragm valve (14a, 14b) is accommodated in a housing of the pressure control valve arrangement, said diaphragm valve having a diaphragm (25a, 25b) as the valve body, which diaphragm can be acted upon by introducing a pressure medium into a control chamber (26a, 26b) that is covered on the outside of the housing by a respective cover (27a, 27b) produced by primary shaping, such as injection molding, in such a way that the control chamber (26a, 26b) is formed between the diaphragm (25a, 25b) and the cover (27a, 27b), and wherein blind holes (29a, 29b), which extend in the cover (27a, 27b) substantially perpendicularly to the plane of the cover (27a, 27b), are formed in the cover (27a, 27b), the blind hole opening of at least one of said blind holes leading into the control chamber (26a, 26b), and the blind hole opening of at least one other of said blind holes leading into a pressure medium channel formed in the housing, and at least one and the other of said blind holes being fluidically interconnected by at least one transverse channel, characterized in that the transverse channel has an acute angle relative to the plane of the cover (27a, 27b) and opens at one end, by means of a transverse channel opening, into the control chamber (26a, 26b) or into the pressure medium channel, wherein the transverse channel opening at least partially overlaps the blind hole opening of one of the blind holes connected by the transverse channel.
Automation device for an automated system, in particular camera sensor, comprising a housing which surrounds an electronics part, comprising a connection component for attaching a cable, wherein the connection component has at least one planar side surface (66, 68), and comprising a mounting aid for fixing the connection component to the housing in a defined position, wherein the mounting aid has a mount on a wall of the housing and a mounting plate which is inserted into the mount in a rotationally fixed manner, wherein the mount contains a first passage opening into which the connection component extends, wherein the mounting plate has a second passage opening with a straight inner contour (54, 56) which, together with the first passage opening, forms a holder for the connection component, and wherein the at least one planar side surface (66, 68) bears smoothly against the straight inner contour (54, 56) in the holder.
Non-spherical magnetic or magnetisable pigment particles comprising - a magnetic metal selected from the group consisting of cobalt, iron, gadolinium and nickel; - a magnetic alloy of iron, manganese, cobalt, nickel or a mixture of two or more thereof; - a magnetic oxide of chromium, manganese, cobalt, iron, nickel or a mixture of two or more thereof; or - a mixture of two or more thereof, and having a d50 value higher than 6 μm and lower than 13 μm, preferably from about 7 μm to about 10 μm, in combination with a d90 value lower than 20 μm, preferably lower than or equal to about 15 μm. - a magnetic metal selected from the group consisting of cobalt, iron, gadolinium and nickel; - a magnetic alloy of iron, manganese, cobalt, nickel or a mixture of two or more thereof; - a magnetic oxide of chromium, manganese, cobalt, iron, nickel or a mixture of two or more thereof; or - a mixture of two or more thereof,
A skin-friendly coating compound for the surface modification of cosmetic powders using sol-gel chemistry of general formula: A-B-C where: A is a hydrocarbon radical having from 10 to 100 carbon atoms and formally derived from an AX precursor with X = -OH or -NH 2, with melting or softening point higher than 25°C and lower than 100°C, B is a ureic or urethane group of formula: C is a propyl trialkoxyl silane group - 3 Si(OR 1) x (OR 2) 3-x where 0 ≤ x ≤ 3 of formula where R 1 corresponds to an ethyl radical -CH 2 CH 3 and R 2 to the methyl radical -CH 3. A is a hydrocarbon radical having from 10 to 100 carbon atoms and formally derived from an AX precursor with X = -OH or -NH 2, with melting or softening point higher than 25°C and lower than 100°C, B is a ureic or urethane group of formula: C is a propyl trialkoxyl silane group - 3 Si(OR 1) x (OR 2) 3-x where 0 ≤ x ≤ 3 of formula where R 1 corresponds to an ethyl radical -CH 2 CH 3 and R 2 to the methyl radical -CH 3.
An air particle measurement apparatus (120, 220) connected to a chamber (110, 210), the chamber (110, 210) temporarily or constantly maintained at a humidity higher than an outside air humidity, the air particle measurement apparatus (120, 220) comprising: a measurement unit (121, 221) configured to measure particles in the drawn gas; a suction pipe (124, 224) through which the gas drawn from an interior of the chamber (110, 210) is transported to the measurement unit (121, 221), the suction pipe (124, 224) connecting a mounting unit (111, 211) of the chamber (110, 210) and the measurement unit (121, 221); a pump (122, 222) configured to suction the gas so as to be transported from the chamber (110, 210) to the measurement unit (121, 221) through the suction pipe (124, 224); and a heating unit (126, 226) configured to heat the gas in a path upstream from the measurement unit (121, 221), wherein the suction pipe (124, 224) is formed of a hygroscopic resin or wherein the apparatus comprises a removal unit Z configured to remove moisture in the gas by condensing moisture contained in the gas in the suction pipe (124, 224), characterized in that the heating unit (126, 226) has a structure to cover the suction pipe (124, 224) upstream from the measurement unit (121, 221). a measurement unit (121, 221) configured to measure particles in the drawn gas; a suction pipe (124, 224) through which the gas drawn from an interior of the chamber (110, 210) is transported to the measurement unit (121, 221), the suction pipe (124, 224) connecting a mounting unit (111, 211) of the chamber (110, 210) and the measurement unit (121, 221); a pump (122, 222) configured to suction the gas so as to be transported from the chamber (110, 210) to the measurement unit (121, 221) through the suction pipe (124, 224); and a heating unit (126, 226) configured to heat the gas in a path upstream from the measurement unit (121, 221), wherein the suction pipe (124, 224) is formed of a hygroscopic resin or wherein the apparatus comprises a removal unit Z configured to remove moisture in the gas by condensing moisture contained in the gas in the suction pipe (124, 224), characterized in that the heating unit (126, 226) has a structure to cover the suction pipe (124, 224) upstream from the measurement unit (121, 221).