mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for carrying a pair of skis, comprising: a strap adapted to encircle a pair of skis to form a bundle, the strap carrying an engagement member; and a belt or bandolier adapted to be worn on the person, the belt or bandolier carrying a holder with which the engagement member is adapted releasably to engage; characterised in that the engagement member is provided with a partition that extends from a side of the engagement member opposite to the location of the holder when the engagement member is engaged with the holder, the partition being adapted to extend between flat sides of a pair of skis, the distal end of the partition being bifurcated, thereby defining a space for receiving a portion of the encircling strap.
Dishwasher, in particular household dishwasher, having a dishwasher cavity, to which a supporting frame is attached in the region of its front loading opening, wherein the supporting frame is fastened to at least one base-side holding part, characterised in that the supporting frame of the dishwasher cavity is connected via at least one latching connection to the base-side holding part.
Method for securing an object, the method comprising: - a step of encoding a first message in a two-dimensional barcode; - a step of generating an anti-copy mark; and - a step of marking the object with the first 2D barcode and the anti-copy mark, characterised in that: - the first message comprises at least a header identifying a certification resource and a signature produced by means of this resource; and - the anti-copy mark is fragile and encodes a second message representative of the signature produced, the second message comprising redundancies. - a step of encoding a first message in a two-dimensional barcode; - a step of generating an anti-copy mark; and - a step of marking the object with the first 2D barcode and the anti-copy mark, - the first message comprises at least a header identifying a certification resource and a signature produced by means of this resource; and - the anti-copy mark is fragile and encodes a second message representative of the signature produced, the second message comprising redundancies.
A cross-linkable one-component laminating adhesive containing: a) 25 to 80 wt.% polyester prepolymers, polyether prepolymers and/or polyurethane prepolymers that are free of NCO groups and that comprise at least one cross-linkable alkoxysilane group bound via NCO groups and additionally NCO groups reacted with compounds containing no hydrolyzable groups, and the prepolymer having molecular weight from 2000 to 30000 g/mol; b) 74 to 19 wt.% organic solvents having a boiling point of up to 130°C; c) 1 to 20 wt.% polymers, oligomers and/or monomers containing one or more anhydride groups; d) 0 to 15 wt.% additives, wherein the viscosity of the adhesive is between 50 and 20000 mPas, according to DIN ISO 2555, measured at 15 to 45°C. a) 25 to 80 wt.% polyester prepolymers, polyether prepolymers and/or polyurethane prepolymers that are free of NCO groups and that comprise at least one cross-linkable alkoxysilane group bound via NCO groups and additionally NCO groups reacted with compounds containing no hydrolyzable groups, and the prepolymer having molecular weight from 2000 to 30000 g/mol; b) 74 to 19 wt.% organic solvents having a boiling point of up to 130°C; c) 1 to 20 wt.% polymers, oligomers and/or monomers containing one or more anhydride groups; d) 0 to 15 wt.% additives,
Computer-implemented method, comprising the following steps: - receiving or generating a first representation (R1 F), wherein the first representation (R1 F) represents an examination region of an examination object without contrast agent or after application of a first amount of a contrast agent in frequency space, - receiving or generating a second representation (R2 F), wherein the second representation (R2 F) represents the examination region of the examination object after application of a second amount of the contrast agent in frequency space, - generating a third representation (R3 F) on the basis of the first representation (R1 F) and the second representation (R2 F), wherein the third representation (R3 F) represents the signal amplification in frequency space caused by the second amount of contrast agent in the examination region, - generating a weighted third representation (R3 F,w) by applying a frequency-dependent weight function to the third representation (R3 F), - generating a fourth representation (R4 F) by combining the first representation (R1 F) with the weighted third representation (R3 F,w), - transforming the fourth representation (R4 F) into a representation (R4 I) of the examination region in real space, - outputting and/or storing the representation (R4 I) of the examination region in real space and/or transmitting the representation (R4 I) of the examination region in real space to a separate computer system. - receiving or generating a first representation (R1 F), wherein the first representation (R1 F) represents an examination region of an examination object without contrast agent or after application of a first amount of a contrast agent in frequency space, - receiving or generating a second representation (R2 F), wherein the second representation (R2 F) represents the examination region of the examination object after application of a second amount of the contrast agent in frequency space, - generating a third representation (R3 F) on the basis of the first representation (R1 F) and the second representation (R2 F), wherein the third representation (R3 F) represents the signal amplification in frequency space caused by the second amount of contrast agent in the examination region, - generating a weighted third representation (R3 F,w) by applying a frequency-dependent weight function to the third representation (R3 F), - generating a fourth representation (R4 F) by combining the first representation (R1 F) with the weighted third representation (R3 F,w), - transforming the fourth representation (R4 F) into a representation (R4 I) of the examination region in real space, - outputting and/or storing the representation (R4 I) of the examination region in real space and/or transmitting the representation (R4 I) of the examination region in real space to a separate computer system.
A method for food package assessment, said method comprising determining an identity (220a, 220b, 220c) associated to a device (204a, 204b, 204c) linked to an operator (202a, 202b, 202c) to perform one or several tasks related to the food package assessment, transmitting instructions (208a, 208b, 208c) related to the food package assessment to the device (204a, 204b, 204c) associated with the identity (220a, 220b, 220c), receiving measurements (212a, 212b, 212c) from the device (204a, 204b, 204c) in response to the instructions (208a, 208b, 208c), and determining food package assessment data based on the measurements (212a, 212b, 212c), determining locations associated to a plurality of devices (204a, 204b, 204c) associated with a plurality of identities (220a, 220b, 220c), determining an instructions-associated location linked to the instructions (208a, 208b, 208c), wherein the step of determining the identity linked to the operator identified to perform one or several tasks related to the food package assessment comprises identifying the device associated to the identity having a location closest to the instructions-associated location. determining an identity (220a, 220b, 220c) associated to a device (204a, 204b, 204c) linked to an operator (202a, 202b, 202c) to perform one or several tasks related to the food package assessment, transmitting instructions (208a, 208b, 208c) related to the food package assessment to the device (204a, 204b, 204c) associated with the identity (220a, 220b, 220c), receiving measurements (212a, 212b, 212c) from the device (204a, 204b, 204c) in response to the instructions (208a, 208b, 208c), and determining food package assessment data based on the measurements (212a, 212b, 212c), determining locations associated to a plurality of devices (204a, 204b, 204c) associated with a plurality of identities (220a, 220b, 220c), determining an instructions-associated location linked to the instructions (208a, 208b, 208c), wherein the step of determining the identity linked to the operator identified to perform one or several tasks related to the food package assessment comprises identifying the device associated to the identity having a location closest to the instructions-associated location.
A method of detecting an interference signal and classifying the origin of the interference signal into two or more classes, the method comprising the following steps: - repeatedly measuring a received signal strength indicator (RSSI) of a received signal; - repeatedly calculating an average value of the received signal strength indicator over a first time-period; - repeatedly calculating a variance value of the received signal strength indicator over a second time period, said second time period at least overlapping said first time period; - comparing the calculated average value to a predetermined threshold average value; - comparing the calculated variance value to a predetermined threshold variance value; - classifying the signal into one of two or more classes based on the comparisons (215, 220) during overlapping time periods, one class being indicative of a jamming condition, and wherein the method is characterised by the step of - classifying the received signal as a jamming signal when the average value exceeds the predetermined threshold average value and the variance value exceeds the predetermined threshold variance value. - repeatedly measuring a received signal strength indicator (RSSI) of a received signal; - repeatedly calculating an average value of the received signal strength indicator over a first time-period; - repeatedly calculating a variance value of the received signal strength indicator over a second time period, said second time period at least overlapping said first time period; - comparing the calculated average value to a predetermined threshold average value; - comparing the calculated variance value to a predetermined threshold variance value; - classifying the signal into one of two or more classes based on the comparisons (215, 220) during overlapping time periods, one class being indicative of a jamming condition, and wherein the method is characterised by the step of - classifying the received signal as a jamming signal when the average value exceeds the predetermined threshold average value and the variance value exceeds the predetermined threshold variance value.
A bonding wire for semiconductor devices, the bonding wire comprising: a core member formed of an electrically-conductive metal; and a skin layer formed on the core member and mainly composed of a metal different from the core member, wherein the metal of the skin layer is a face-centered cubic metal, a main constituent of the core member is Cu, the core member containing at least one selected from the group of B, Pd, Bi and P, and a main constituent of the skin layer is at least one selected from the group of Pd, Pt, and Ag, characterized in that the ratio of crystalline orientation <111> to the whole crystalline orientations <hkl> within 15 degrees from a wire lengthwise direction at a surface of the skin layer is greater than or equal to 50 %, and a thickness of the skin layer is within a range of 0.005 to 0.2μm. a core member formed of an electrically-conductive metal; and a skin layer formed on the core member and mainly composed of a metal different from the core member, wherein the metal of the skin layer is a face-centered cubic metal, a main constituent of the core member is Cu, the core member containing at least one selected from the group of B, Pd, Bi and P, and a main constituent of the skin layer is at least one selected from the group of Pd, Pt, and Ag, characterized in that the ratio of crystalline orientation <111> to the whole crystalline orientations <hkl> within 15 degrees from a wire lengthwise direction at a surface of the skin layer is greater than or equal to 50 %, and a thickness of the skin layer is within a range of 0.005 to 0.2μm.
A photodiode emulator circuit, comprising: a first current source circuit; first and second transistors (M4, M5) having sources connected together and connected to an output of the first current source circuit, a drain of the second transistor connected to a first node; a third transistor connected between a drain of the first transistor and a replica load circuit; a second current source circuit (M3, M6) connected to the first node; a capacitor connected between the first node and electrical ground; and a fourth transistor having a source connected to the first node and a drain that supplies an output current; wherein a gate of the first transistor receives a first logic signal, a gate of the second transistor receives a second logic signal, and the first and second logic signals are logical complements of each other. a first current source circuit; first and second transistors (M4, M5) having sources connected together and connected to an output of the first current source circuit, a drain of the second transistor connected to a first node; a third transistor connected between a drain of the first transistor and a replica load circuit; a second current source circuit (M3, M6) connected to the first node; a capacitor connected between the first node and electrical ground; and a fourth transistor having a source connected to the first node and a drain that supplies an output current; wherein a gate of the first transistor receives a first logic signal, a gate of the second transistor receives a second logic signal, and the first and second logic signals are logical complements of each other.
Method for making a brake disc, comprising the following operating steps: a) arranging a brake disc, comprising a braking band provided with two opposed braking surfaces (2a, 2b), each of which defines at least partially one of two main sides of the disc, the braking band being made of aluminium or aluminium alloy or being made of grey cast iron or steel; b) depositing on the disc a layer of chromium carbide (Cr3C2) and nickel-chromium (NiCr) in particle form by HVOF (High Velocity Oxygen Fuel) technique or by HVAF (High Velocity Air Fuel) technique or by KM (Kinetic Metallization) technique, forming a base protective coating covering at least one of the two braking surfaces of the braking band in direct contact therewith; and c) depositing on said base protective coating a material in particle form consisting of tungsten carbide, iron (Fe), chromium (Cr) and aluminium (Al) by HVOF technique or by HVAF technique or by KM technique, forming a surface protective coating, consisting of tungsten carbide and iron (Fe), chromium (Cr) and aluminium (Al) and covering at least one of the two braking surfaces of the braking band. a) arranging a brake disc, comprising a braking band provided with two opposed braking surfaces (2a, 2b), each of which defines at least partially one of two main sides of the disc, the braking band being made of aluminium or aluminium alloy or being made of grey cast iron or steel; b) depositing on the disc a layer of chromium carbide (Cr3C2) and nickel-chromium (NiCr) in particle form by HVOF (High Velocity Oxygen Fuel) technique or by HVAF (High Velocity Air Fuel) technique or by KM (Kinetic Metallization) technique, forming a base protective coating covering at least one of the two braking surfaces of the braking band in direct contact therewith; and c) depositing on said base protective coating a material in particle form consisting of tungsten carbide, iron (Fe), chromium (Cr) and aluminium (Al) by HVOF technique or by HVAF technique or by KM technique, forming a surface protective coating, consisting of tungsten carbide and iron (Fe), chromium (Cr) and aluminium (Al) and covering at least one of the two braking surfaces of the braking band.
Semiconductor circuit for an electronic control unit for use in a system which is not mechanically inherently secure in a motor vehicle, comprising - a function computer for regulating the normal operation of a motor vehicle by carrying out at least the level 1 and level 2 functionality of the EGAS concept, - at least one monitoring unit for executing at least the level 3 functionality of the EGAS concept, - a monitoring computer on which at least one query/response procedure can be carried out with the function computer, wherein - function computer, monitoring unit and monitoring computer are each physically independent of one another, characterized in that when the monitoring computer fails the entire function or a restricted function of the semiconductor circuit is ensured by the function computer, or - when the function computer fails the entire function or a restricted function of the semiconductor circuit is ensured by the monitoring computer, wherein - the function computer and the monitoring computer each have a separate voltage supply (SV1, SV2), and wherein the voltage supply of the monitoring computer has a watchdog for additionally monitoring the monitoring computer. - a function computer for regulating the normal operation of a motor vehicle by carrying out at least the level 1 and level 2 functionality of the EGAS concept, - at least one monitoring unit for executing at least the level 3 functionality of the EGAS concept, - a monitoring computer on which at least one query/response procedure can be carried out with the function computer, - function computer, monitoring unit and monitoring computer are each physically independent of one another, characterized in that when the monitoring computer fails the entire function or a restricted function of the semiconductor circuit is ensured by the function computer, or - when the function computer fails the entire function or a restricted function of the semiconductor circuit is ensured by the monitoring computer, wherein - the function computer and the monitoring computer each have a separate voltage supply (SV1, SV2), and
Joint configuration for a joint endoprosthesis forming a hinge joint, having: - a joint receptacle, which has a joint receptacle surface and a receptacle locking structure, - a joint body, which is receivable in the joint receptacle and has a joint body surface and a body locking structure, wherein the joint receptacle and the joint body are pivotable relative to each other about a rotation axis, the joint receptacle surface and the joint body surface are movable relative to each other into a position in which the receptacle locking structure and the body locking structure assume a locking position, in which they can be brought into engagement for a locked state between the joint receptacle and the joint body, the receptacle locking structure and the body locking structure can be brought into engagement with a locking element, characterized in that the locking element is insertable substantially parallel to the rotation axis. - a joint receptacle, which has a joint receptacle surface and a receptacle locking structure, - a joint body, which is receivable in the joint receptacle and has a joint body surface and a body locking structure,
A laser processing apparatus (1A, 1B, 1C, 1D, 1E, 1F) for processing a member to be processed by irradiating the member with laser light, the apparatus comprising: a laser for generating laser light; optical means (21b, 21c, 21d, 25a, 25b, 26a) for converging the laser light generated by the laser onto a processing area; and a filter (30, 26b), disposed between the member to be processed and the optical means for converging the laser light, at a position closer to the member to be processed, for blocking a wavelength of fluorescence including a wavelength within a range of 1100nm to 2800nm generated by the optical means upon pumping with the laser light; a temperature detecting means (50A, 50C) for measuring a temperature of the processing area according to a light component including the wavelength within the range of 1100nm to 2800nm blocked by the filter, in light thermally radiating from the processing area; wherein light having the wavelength blocked by the filter is used for measuring a temperature of the processing area, the laser being configured to heat the processing area by irradiation of the laser light and thermal radiation occurring in the processing area through the processing area being heated by laser light irradiation. a laser for generating laser light; optical means (21b, 21c, 21d, 25a, 25b, 26a) for converging the laser light generated by the laser onto a processing area; and a filter (30, 26b), disposed between the member to be processed and the optical means for converging the laser light, at a position closer to the member to be processed, for blocking a wavelength of fluorescence including a wavelength within a range of 1100nm to 2800nm generated by the optical means upon pumping with the laser light; a temperature detecting means (50A, 50C) for measuring a temperature of the processing area according to a light component including the wavelength within the range of 1100nm to 2800nm blocked by the filter, in light thermally radiating from the processing area;
A temperature sensor comprising: a sensor body extending from a sensor base to an opposed sensor tip along a longitudinal axis and defining a leading edge and opposed trailing edge, wherein the sensor body defines an interior flow passage with an inlet for fluid communication of fluid into the interior flow passage and an outlet for exhausting fluid out from the interior flow passage; and a wedge extension defined on the sensor body between the sensor tip and the sensor base on the leading edge of the sensor body, wherein at least a portion of the outlet is downstream of at least a portion of the wedge extension, relative to the leading edge and the trailing edge, to increase a pressure differential between the inlet and the outlet at Mach numbers.55 Mach or higher; characterized in that the wedge extension is configured to separate the leading edge into separate portions (103, 105, 107) to reduce the size of ice accumulation on the sensor body. a sensor body extending from a sensor base to an opposed sensor tip along a longitudinal axis and defining a leading edge and opposed trailing edge, wherein the sensor body defines an interior flow passage with an inlet for fluid communication of fluid into the interior flow passage and an outlet for exhausting fluid out from the interior flow passage; and a wedge extension defined on the sensor body between the sensor tip and the sensor base on the leading edge of the sensor body, wherein at least a portion of the outlet is downstream of at least a portion of the wedge extension, relative to the leading edge and the trailing edge, to increase a pressure differential between the inlet and the outlet at Mach numbers.55 Mach or higher; characterized in that the wedge extension is configured to separate the leading edge into separate portions (103, 105, 107) to reduce the size of ice accumulation on the sensor body.
An agent containing catechins, for therapeutic use in disinfecting an item in oral cavity, by bringing the agent into contact with the item and irradiating the thus agent-contacted item with light having a wavelength of 350 nm to 500 nm.