mhurhangee/ep-ind-claims huggingface dataset:
Method for operating an electrically operable portable power tool which has at least one tool drive shaft (23, 323, 623) for directly or indirectly driving an application tool in rotation, wherein the application tool is received in a tool holder (16, 316, 616) that is connected to the tool drive shaft (23, 323, 623), in particular connected releasably to the portable power tool, wherein at least one drive device (14, 314, 614) is couplable to the at least one tool drive shaft (23, 323, 623) via at least one coupling device (44, 45, 344, 345, 644, 645) having settable limit torques, wherein at least two different limit torques MG1, MG2, which are preferably selectable by an operator, are provided for the coupling device (44, 45, 344, 345, 644, 645), characterized in that, if the application tool is changed, the coupling device (44, 45, 344, 345, 644, 645) is automatically restored to the lowest possible limit torque MGmin of the at least two limit torques.
A porous mirror for detection of an analyte in a fluid by optical probing, comprising - a translucent slab with a front side, and a backside facing away from the front side, wherein the front side is adapted for being contacted with a fluid, and - a reflective layer at the front side of the translucent slab, the reflective layer being adapted to reflect light reaching the reflective layer from the backside of the translucent slab, wherein the translucent slab comprises pores, wherein the pores are dead end pores extending from respective openings at the front side into the translucent slab, through the reflective layer, wherein a cross-sectional dimension of the openings of the pores is dimensioned so as to prevent larger particles or debris, if any included the fluid, from entering the pores, while allowing the analyte in the fluid to enter the pores via diffusion; characterized in that an inner wall surface of the pores is coated with a hydrophilic coating. - a translucent slab with a front side, and a backside facing away from the front side, wherein the front side is adapted for being contacted with a fluid, and - a reflective layer at the front side of the translucent slab, the reflective layer being adapted to reflect light reaching the reflective layer from the backside of the translucent slab,
A temperature sensing device (1210, 1310, 1410, 1510, 2010, 2210, 2310, 2410, 2510, 1610, 2710, 2810, 2910) for use with a cooking appliance, the temperature sensing device comprising: a temperature sensor (1591, 2691, 2991) configured to measure a temperature of a cooking chamber of the cooking appliance; a housing (1232, 1432, 2032, 2132, 2232, 2332, 2432, 2532, 2632, 2732) configured to be mounted on the cooking appliance; a Printed Circuit Board Assembly (PCBA) (1565, 2162, 2662, 2762) inside the housing and coupled to the temperature sensor (1591, 2691, 2991); and an antenna (1444, 1544, 2044, 2544, 2744, 2844) coupled to the PCBA (1565, 2162, 2662, 2762) and configured to wirelessly transmit data from the temperature sensing device indicating the measured temperature of the cooking chamber; characterized by: a phase change material located inside the housing (1232, 1432, 2032, 2132, 2232, 2332, 2432, 2532, 2632, 2732) positioned between the PCBA (1565, 2162, 2662, 2762) and an exterior surface of the cooking appliance, wherein the phase change material is configured to store heat from the cooking appliance. a temperature sensor (1591, 2691, 2991) configured to measure a temperature of a cooking chamber of the cooking appliance; a housing (1232, 1432, 2032, 2132, 2232, 2332, 2432, 2532, 2632, 2732) configured to be mounted on the cooking appliance; a Printed Circuit Board Assembly (PCBA) (1565, 2162, 2662, 2762) inside the housing and coupled to the temperature sensor (1591, 2691, 2991); and an antenna (1444, 1544, 2044, 2544, 2744, 2844) coupled to the PCBA (1565, 2162, 2662, 2762) and configured to wirelessly transmit data from the temperature sensing device indicating the measured temperature of the cooking chamber; characterized by: a phase change material located inside the housing (1232, 1432, 2032, 2132, 2232, 2332, 2432, 2532, 2632, 2732) positioned between the PCBA (1565, 2162, 2662, 2762) and an exterior surface of the cooking appliance, wherein the phase change material is configured to store heat from the cooking appliance.
Refrigeration appliance comprising a water pipe inside the refrigeration appliance which comprises a collecting tray for collecting leakage water, wherein the refrigeration appliance comprises an empty conduit for conducting the leakage water from the water pipe inside the empty conduit to the collecting tray, characterised in that the collecting tray is arranged in a valve housing comprising a function valve for the controllable dispensing of water and the valve housing comprises a leakage detection device for detecting a leakage in the water circuit.
A method for testing for a mutant gene by real time polymerase chain reaction using a DNA polymerase, a template DNA, a forward primer, a reverse primer and a probe, wherein the 5'-end of the probe has a continuous or a non-continuous flap structure of two or more bases when the probe hybridized with the template DNA, and the probe consists of a base sequence partially complementary to one primer of the two primers, and the mutant gene site of the template DNA is located at the 5'end of the probe, and the 5'-flap endonuclease activity of DNA polymerase is inhibited by placing the 5'-end of the probe within 24-38 bases from a 5'-end of the polymerase chain reaction product, wherein the 5'-end flap structure, which inhibits the 5'-flap endonuclease activity of the DNA polymerase, is induced depending upon allele.
Heat exchanger for an exchange of heat between at least a first fluid and a second fluid, in particular for a motor vehicle: - the heat exchanger comprising a heat exchange core with an alternating stack: • of heat exchange tubes having ducts for the circulation of the first fluid, and • spacers, and - the heat exchanger having at least in part a coating that is able to melt so as to join elements of the heat exchanger during assembly by brazing, characterized in that - the spacers have respectively at least one reservoir that is able to collect the coating during brazing of the heat exchanger, - each reservoir being arranged on one end of a spacer and facing one end of a heat exchange tube, so as to prevent the coating from blocking said at least one circulation duct of the heat exchange tube during brazing of the heat exchanger. - the heat exchanger comprising a heat exchange core with an alternating stack: • of heat exchange tubes having ducts for the circulation of the first fluid, and • spacers, and • of heat exchange tubes having ducts for the circulation of the first fluid, and • spacers, and - the heat exchanger having at least in part a coating that is able to melt so as to join elements of the heat exchanger during assembly by brazing, characterized in that - the spacers have respectively at least one reservoir that is able to collect the coating during brazing of the heat exchanger, - each reservoir being arranged on one end of a spacer and facing one end of a heat exchange tube, so as to prevent the coating from blocking said at least one circulation duct of the heat exchange tube during brazing of the heat exchanger.
A method of brazing a gap in a Ni base superalloy substrate comprising: providing a braze alloy having the following composition in weight percent: Cr: 20% - 22%; and, Fe: 5% - 7%; and, Si: 5% - 10%; and, Mo: 1.5% - 10%; and, Cu: 0.2% - 2%; and, C: 0.03% maximum; Al: less than 3%; Ti: less than 7%; Hf: less than 1.5%; Nb: less than 1.0%; Zr: less than 6%; B: less than 1.0%; Co: less than 20%; Ta: less than 10%; W: less than 12%; Re: less than 0.2%; and, the balance of the braze alloy is Ni; and, delivering the braze alloy to a gap in the substrate; and brazing the gap having the braze alloy therein at a temperature that is the lower of 1180 degrees Celsius or a temperature that is above liquidus temperature of the braze alloy but below solidus temperature of the substrate; and, allowing the braze alloy to solidify creating thereby a braze zone. Cr: 20% - 22%; and, Fe: 5% - 7%; and, Si: 5% - 10%; and, Mo: 1.5% - 10%; and, Cu: 0.2% - 2%; and, C: 0.03% maximum; Al: less than 3%; Ti: less than 7%; Hf: less than 1.5%; Nb: less than 1.0%; Zr: less than 6%; B: less than 1.0%; Co: less than 20%; Ta: less than 10%; W: less than 12%; Re: less than 0.2%; and, the balance of the braze alloy is Ni; and, delivering the braze alloy to a gap in the substrate; and brazing the gap having the braze alloy therein at a temperature that is the lower of 1180 degrees Celsius or a temperature that is above liquidus temperature of the braze alloy but below solidus temperature of the substrate; and, allowing the braze alloy to solidify creating thereby a braze zone.
Cleaning device for an oven, in particular a baking oven, wherein the cleaning device includes an inlet, an outlet, a catalyst together with a catalyst heater, wherein the cleaning device is configured as a structural unit or module including said parts, separate from the oven and to be handled independently, for arrangement within the oven in air-ducting connection to a muffle of the oven, characterized in that the cleaning device includes a ventilator.
A solid soap comprising 20 to 70 mass% of fatty acid soaps, wherein the solid soap comprises dimethyldiallylammonium chloride/acrylamide polymer and a high-molecular polyethylene glycol of which molecular weight is 4 million to 8 million, wherein the blending quantity of dimethyldiallylammonium chloride/acrylamide polymer is 0.15 to 1.0 mass% with respect to the total amount of the solid soap, and wherein blending quantity of the high-molecular polyethylene glycol is 0.0005 to 0.002 mass% with respect to the total amount of the solid soap.
Method for forming a floor structure, comprising the steps of - providing a slab, - providing insulating and draining granulate material on top of said slab, characterized by comprising a step of - providing at least one channel system in the layer of the granulate material, the channel system is provided with an airing function for ventilating the floor structure, and - drying the floor structure, and in particular the granulate material, using a controlled pressure flow of a gaseous medium in the channel system. - providing a slab, - providing insulating and draining granulate material on top of said slab, - providing at least one channel system in the layer of the granulate material, the channel system is provided with an airing function for ventilating the floor structure, and - drying the floor structure, and in particular the granulate material, using a controlled pressure flow of a gaseous medium in the channel system.
A method of amplifying at least two types of a target nucleic acid, the method comprising: providing a sample comprising a plurality of types of target nucleic acids having a different primary sequence, wherein the target nucleic acid is a RNA having a length of 200 nts or less; ligating at least two types of the target RNAs; and amplifying the ligated product. providing a sample comprising a plurality of types of target nucleic acids having a different primary sequence, wherein the target nucleic acid is a RNA having a length of 200 nts or less; ligating at least two types of the target RNAs; and amplifying the ligated product.
An apparatus for use with an instrument handle, the apparatus comprising: a housing; a knob receivable in the housing, the knob having a key hole structure to receive an instrument bulb and neck; a slot in the housing to receive the knob, wherein the knob is pressed into the slot to facilitate installation and removal of an instrument, and wherein the slot is cylindrical, characterized in that the knob has the shape of a rectangular cuboid and the knob has rounded edges to fit within the cylindrical slot. a housing; a knob receivable in the housing, the knob having a key hole structure to receive an instrument bulb and neck; a slot in the housing to receive the knob, wherein the knob is pressed into the slot to facilitate installation and removal of an instrument, and wherein the slot is cylindrical, characterized in that the knob has the shape of a rectangular cuboid and the knob has rounded edges to fit within the cylindrical slot.
A method for use in a programmable logic device having a plurality of specialized processing blocks, each of said specialized processing blocks having a plurality of multipliers of a first size arranged in units of a first number of multipliers, wherein said method is for performing a multiplication operation of a second size larger than said first size, and comprises: decomposing said multiplication operation of said second size into a plurality of multiplication operations of different sizes, each of said different sizes being smaller than said second size; performing a multiplication operation of a first one of said different sizes using said first number of multipliers in a first one of said units; performing a multiplication operation of a second one of said different sizes smaller than said first one of said different sizes using one of said multipliers in a second one of said units; performing a plurality of multiplication operations of a third one of said different sizes, smaller than said first one of said different sizes and larger than said second one of said different sizes, using, for each respective one of said multiplication operations of said third one of said different sizes, a respective subset of said multipliers in a third one of said units; aligning outputs of said plurality of multiplication operations of said third one of said different sizes for addition within said third one of said units, to form a result of said multiplication operations of said third one of said different sizes; and adding results of said multiplication operations of said first, second and third ones of said different sizes. decomposing said multiplication operation of said second size into a plurality of multiplication operations of different sizes, each of said different sizes being smaller than said second size; performing a multiplication operation of a first one of said different sizes using said first number of multipliers in a first one of said units; performing a multiplication operation of a second one of said different sizes smaller than said first one of said different sizes using one of said multipliers in a second one of said units; performing a plurality of multiplication operations of a third one of said different sizes, smaller than said first one of said different sizes and larger than said second one of said different sizes, using, for each respective one of said multiplication operations of said third one of said different sizes, a respective subset of said multipliers in a third one of said units; aligning outputs of said plurality of multiplication operations of said third one of said different sizes for addition within said third one of said units, to form a result of said multiplication operations of said third one of said different sizes; and adding results of said multiplication operations of said first, second and third ones of said different sizes.
A method of forming a compound roll comprising the steps of: providing at least one sintered inner core formed of a first grade cemented carbide; providing at least one sintered outer sleeve formed of a different second higher grade cemented carbide relative to the first grade; assembling the sintered inner core and sintered at least one outer sleeve, the at least one outer sleeve and the inner core each having a joining surface (26, 28), characterized in that when the sintered inner core and the sintered at least one outer sleeve are assembled each joining surface (26, 28) is brought into contact to form a bonding interface therebetween; and sinter-fusing the assembled sintered inner core and the sintered at least one outer sleeve together at the bonding interface to form a compound roll; wherein the assembly step includes shrinking the inner core in liquid nitrogen and pressing it into the at least one outer sleeve, wherein thermal expansion between the inner core and the at least one outer sleeve provides a strong j oint at the bonding interface. providing at least one sintered inner core formed of a first grade cemented carbide; providing at least one sintered outer sleeve formed of a different second higher grade cemented carbide relative to the first grade; assembling the sintered inner core and sintered at least one outer sleeve, the at least one outer sleeve and the inner core each having a joining surface (26, 28), characterized in that when the sintered inner core and the sintered at least one outer sleeve are assembled each joining surface (26, 28) is brought into contact to form a bonding interface therebetween; and sinter-fusing the assembled sintered inner core and the sintered at least one outer sleeve together at the bonding interface to form a compound roll; wherein the assembly step includes shrinking the inner core in liquid nitrogen and pressing it into the at least one outer sleeve, wherein thermal expansion between the inner core and the at least one outer sleeve provides a strong j oint at the bonding interface.
Transfer station for quickly loading goods pallets in a logistics system, comprising - a goods pallet receiving area, which is adapted so as to simultaneously receive multiple goods pallets arranged in a row next to one another along a longitudinal axis A, - a drive portal, which can be moved in the goods pallet receiving area in vertical direction and along the longitudinal axis, characterised by a plurality of runners (7; 57) for taking hold of the goods pallets, said runners being movable along the longitudinal axis within and at least partly outside of the receiving area, wherein - each of the runners (7; 57) has a first end portion and a second end portion opposite the first end portion in the direction of the longitudinal axis, and a connection in the respective end portion (11, 13) for coupling to the drive portal in a reversibly releasable manner. - a goods pallet receiving area, which is adapted so as to simultaneously receive multiple goods pallets arranged in a row next to one another along a longitudinal axis A, - a drive portal, which can be moved in the goods pallet receiving area in vertical direction and along the longitudinal axis, - each of the runners (7; 57) has a first end portion and a second end portion opposite the first end portion in the direction of the longitudinal axis, and a connection in the respective end portion (11, 13) for coupling to the drive portal in a reversibly releasable manner.
A drill, comprising: a drill body comprising a rotation center axis; two cutting edges provided on a tip side of the drill body; a chip evacuation flute provided to a rear of the two cutting edges and in a drill rotational direction from each of the two cutting edges; and two heels provided in a drill counter rotation direction from the two cutting edges; the chip evacuation flute comprising a cutting edge side wall surface at a position on the cutting edge side and a heel side wall surface at a position on the heel side, a drill tip angle (α) being from 170 to 190°; a web thickness (d) being from 0.10 to 0.25 times a diameter of the drill body; a chip evacuation flute opening angle (γ) being from 85 to 110°; and in a cross-section orthogonal to the rotation center axis at a position where the chip evacuation flute is present, the chip evacuation flute having the form of a curved line, characterised in that the radius of curvature of said curved line gradually becomes smaller from an outer peripheral end of the cutting edge side wall surface to an outer peripheral end of the heel side wall surface. a drill body comprising a rotation center axis; two cutting edges provided on a tip side of the drill body; a chip evacuation flute provided to a rear of the two cutting edges and in a drill rotational direction from each of the two cutting edges; and two heels provided in a drill counter rotation direction from the two cutting edges; the chip evacuation flute comprising a cutting edge side wall surface at a position on the cutting edge side and a heel side wall surface at a position on the heel side, a drill tip angle (α) being from 170 to 190°; a web thickness (d) being from 0.10 to 0.25 times a diameter of the drill body; a chip evacuation flute opening angle (γ) being from 85 to 110°; and in a cross-section orthogonal to the rotation center axis at a position where the chip evacuation flute is present, the chip evacuation flute having the form of a curved line, characterised in that the radius of curvature of said curved line gradually becomes smaller from an outer peripheral end of the cutting edge side wall surface to an outer peripheral end of the heel side wall surface.
A method for the volume adaptation of a breast prosthesis, wherein the breast prosthesis has a first shell body, a second shell body peripherally connected thereto, and a fluid space arranged between said shell bodies, wherein the fluid space is accessible from the outside through a passage provided with a valve, wherein the method comprises the following steps: (a) inserting the breast prosthesis into a brassiere worn by a patient; (b) filling the fluid space with a fluid or removing a fluid from the fluid space while the breast prosthesis is inserted into the brassiere worn by the patient. (a) inserting the breast prosthesis into a brassiere worn by a patient; (b) filling the fluid space with a fluid or removing a fluid from the fluid space while the breast prosthesis is inserted into the brassiere worn by the patient.
A method for manufacturing a polymer article having a thin coating formed on at least one of its side by plasma, said thin coating consisting of a first coating and a second coating, characterized in that said method comprises successively: - a plasma treatment on said polymer article; - a deposition of the first coating of SiO x C y H z by generation of a plasma either from tetramethylsilane, or from tetramethylsilane and an oxidizing gas, the ratio between the oxidizing gas and tetramethylsilane being comprised between zero and three in a first step so as to obtain said first coating, so that the x value is between 0 and 1.7, the y value is between 0.5 and 0.8, the z value is between 0.35 and 0.6 for said first SiO x C y H z coating, and - a subsequent deposition of the second coating of SiO x C y H z by generation of a plasma from tetramethylsilane in the presence of an oxidizing gas, the ratio between the oxidizing gas and tetramethylsilane being higher than for deposition of the first coating and comprised between four and ten in a second step, so as to obtain said second coating onto said first one, so that the x value is between 1.7 and 1.99, the y value is between 0.2 and 0.7, the z value is between 0.2 and 0.35 for said second SiO x C y H z coating, wherein the thickness of said first coating is from 1 nanometer to 15 nanometers and the thickness of said second coating is from 10 nanometers to 100 nanometers. - a plasma treatment on said polymer article; - a deposition of the first coating of SiO x C y H z by generation of a plasma either from tetramethylsilane, or from tetramethylsilane and an oxidizing gas, the ratio between the oxidizing gas and tetramethylsilane being comprised between zero and three in a first step so as to obtain said first coating, so that the x value is between 0 and 1.7, the y value is between 0.5 and 0.8, the z value is between 0.35 and 0.6 for said first SiO x C y H z coating, and - a subsequent deposition of the second coating of SiO x C y H z by generation of a plasma from tetramethylsilane in the presence of an oxidizing gas, the ratio between the oxidizing gas and tetramethylsilane being higher than for deposition of the first coating and comprised between four and ten in a second step, so as to obtain said second coating onto said first one, so that the x value is between 1.7 and 1.99, the y value is between 0.2 and 0.7, the z value is between 0.2 and 0.35 for said second SiO x C y H z coating,