mhurhangee/ep-ind-claims huggingface dataset:
A smart box suitable for holding food products and comprising - a case holding food products, - a cover which enables the case to be closed and has a magnetic lock assembly, - at least one temperature sensor which is placed inside the case, - at least one acceleration sensor which detects whether the case moved or not, and which is placed in the case, - a beacon which emits a predetermined identification signal, and characterized by - a buzzer and a warning light, - a control unit, which is adapted to receive temperature data from the temperature sensor, to receive movement data from the acceleration sensor, to compare these data with a predetermined value, and, if the received data are greater than the predetermined values, to transmit identification signal emission command to the beacon and to activate the buzzer, and - at least one energy source which supplies the electrical energy required for the operation of the sensors and, beacon and wherein - the control unit is adapted to send a command to the beacon and to activate the buzzer and visual warning light if the temperature data received from the temperature sensor is below a predetermined value and the data received from the acceleration sensor is greater than a predetermined value - a case holding food products, - a cover which enables the case to be closed and has a magnetic lock assembly, - at least one temperature sensor which is placed inside the case, - at least one acceleration sensor which detects whether the case moved or not, and which is placed in the case, - a beacon which emits a predetermined identification signal, and characterized by - a buzzer and a warning light, - a control unit, which is adapted to receive temperature data from the temperature sensor, to receive movement data from the acceleration sensor, to compare these data with a predetermined value, and, if the received data are greater than the predetermined values, to transmit identification signal emission command to the beacon and to activate the buzzer, and - at least one energy source which supplies the electrical energy required for the operation of the sensors and, beacon and wherein - the control unit is adapted to send a command to the beacon and to activate the buzzer and visual warning light if the temperature data received from the temperature sensor is below a predetermined value and the data received from the acceleration sensor is greater than a predetermined value
A nutritional composition comprising a protein hydrolysate from mammalian milk, preferably milk from a species of the genus Bos, Bison, Bubalus or Capra, more preferably from genus Bos, preferably from cow's milk, for use in - induction of oral immune tolerance against milk protein; and/or - prevention or treatment of oral immune intolerance against milk protein; and/or - reducing the risk of developing oral immune intolerance against milk protein, in a human subject, wherein the protein hydrolysate comprises at least a peptide having a sequence according to SEQ ID NO: 5 and at least one peptide having a sequence according to SEQ ID NO: 2, SEQ ID NO: 3 or SEQ ID NO: 4, said composition preferably further comprising at least one strain of a lactic acid-producing bacterium. - induction of oral immune tolerance against milk protein; and/or - prevention or treatment of oral immune intolerance against milk protein; and/or - reducing the risk of developing oral immune intolerance against milk protein, in a human subject, wherein the protein hydrolysate comprises at least a peptide having a sequence according to SEQ ID NO: 5 and at least one peptide having a sequence according to SEQ ID NO: 2, SEQ ID NO: 3 or SEQ ID NO: 4, said composition preferably further comprising at least one strain of a lactic acid-producing bacterium.
Power connection for an electrical machine for driving a motor vehicle, comprising - a housing element which forms a device housing or which is designed in order to close a passage opening of a device housing, - at least one conductor (14, 16, 18) which passes through the housing element, has an inner-side section (14a, 16a, 18a) that is intended to be arranged within a device housing, has an outer-side section (14b, 16b, 18b) that is designed for connecting the electrical device to an external energy source, and has a section (14c, 16c, 18c) that is embedded in the housing element, - wherein a sealing element (14d, 16d, 18d) is arranged on the embedded section (14c, 16c, 18c) between the conductor (14, 16, 18) and the housing element, and wherein - the housing element is formed from a thermoplastic, and wherein - the conductor (14, 16, 18) and the sealing element (14d, 16d, 18d) are encapsulated by injection-moulding with the plastic for the purpose of forming the housing element, and wherein - the sealing element (14d, 16d, 18d) is designed as a sheathing which is produced on the conductor (14, 16, 18), characterized in that - the sealing element (14d, 16d, 18d) extends at least over a portion of the inner-side section (14a, 16a, 18a) and/or of the outer-side section (14b, 16b, 18b) of the conductor (14, 16, 18) and closes the said conductor in a sealing manner. - a housing element which forms a device housing or which is designed in order to close a passage opening of a device housing, - at least one conductor (14, 16, 18) which passes through the housing element, has an inner-side section (14a, 16a, 18a) that is intended to be arranged within a device housing, has an outer-side section (14b, 16b, 18b) that is designed for connecting the electrical device to an external energy source, and has a section (14c, 16c, 18c) that is embedded in the housing element, - wherein a sealing element (14d, 16d, 18d) is arranged on the embedded section (14c, 16c, 18c) between the conductor (14, 16, 18) and the housing element, and wherein - the housing element is formed from a thermoplastic, and wherein - the conductor (14, 16, 18) and the sealing element (14d, 16d, 18d) are encapsulated by injection-moulding with the plastic for the purpose of forming the housing element, and wherein - the sealing element (14d, 16d, 18d) is designed as a sheathing which is produced on the conductor (14, 16, 18), characterized in that - the sealing element (14d, 16d, 18d) extends at least over a portion of the inner-side section (14a, 16a, 18a) and/or of the outer-side section (14b, 16b, 18b) of the conductor (14, 16, 18) and closes the said conductor in a sealing manner.
A flat-tube solid oxide fuel cell, comprising: a series of ellipsoidal annular spaces; ribs separating said ellipsoidal annular spaces; an electrolyte layer; and an anode layer; wherein said ellipsoidal annular spaces have an elongate, ellipsoidal cross-section that has exclusively rounded edges; wherein said fuel cell has a closed end and an open end, and wherein air tubes are inserted within and feed down the length of said annular spaces; characterised in that said closed end has exclusively rounded edges; wherein said closed end is integrally formed with the rest of the flat-tube solid oxide full cell; wherein said closed end has a thicker wall thickness than the wall thickness of the rest of the flat-tube solid oxide fuel cell, the wall thicknesses being those between said annular spaces and the exterior of the flat-tube solid oxide fuel cell; wherein said closed end is formed through extrusion molding. a series of ellipsoidal annular spaces; ribs separating said ellipsoidal annular spaces; an electrolyte layer; and an anode layer; wherein said ellipsoidal annular spaces have an elongate, ellipsoidal cross-section that has exclusively rounded edges; wherein said fuel cell has a closed end and an open end, and wherein air tubes are inserted within and feed down the length of said annular spaces; characterised in that said closed end has exclusively rounded edges; wherein said closed end is integrally formed with the rest of the flat-tube solid oxide full cell; wherein said closed end has a thicker wall thickness than the wall thickness of the rest of the flat-tube solid oxide fuel cell, the wall thicknesses being those between said annular spaces and the exterior of the flat-tube solid oxide fuel cell; wherein said closed end is formed through extrusion molding.
An electronic pen including a magnetic core that has a through-hole and around which a coil is wound in a direction along the through-hole, a core body that is inserted in the through-hole of the magnetic core and has electrical conductivity, a capacitor for forming a resonant circuit with the coil, a signal generating unit (36, 37) configured to generate a signal for causing a position to be detected, transmitted through the core body, an electricity storage unit, and a charge circuit configured to charge the electricity storage unit by an induced current generated in the coil according to an external magnetic field, wherein the electronic pen is capable to concurrently have a state, in which the resonant circuit is ready to be operated, and a state, in which a signal from the signal generating unit (36, 37) is transmitted through the core body, wherein the electronic pen is further configured to: in a state in which the electronic pen is used with a sensor of an electromagnetic induction system, the electronic pen operates to receive electromagnetic energy from the sensor and return the received electromagnetic energy to the sensor by the resonant circuit and operates to charge the electricity storage unit by an induced current generated in the coil, and in a state in which the electronic pen is used with a sensor of a capacitive coupling system, the electronic pen operates to transmit the signal from the signal generating unit (36, 37) to the sensor through the core body. in a state in which the electronic pen is used with a sensor of an electromagnetic induction system, the electronic pen operates to receive electromagnetic energy from the sensor and return the received electromagnetic energy to the sensor by the resonant circuit and operates to charge the electricity storage unit by an induced current generated in the coil, and in a state in which the electronic pen is used with a sensor of a capacitive coupling system, the electronic pen operates to transmit the signal from the signal generating unit (36, 37) to the sensor through the core body.
Arrangement for polarized neutron beams, comprising at least one 3 He neutron spin filter in the beam path of a neutron beam from a neutron source for pulsed neutron beams, characterized in that the 3 He neutron spin filter is movably arranged for varying its effective cell length (I cell, I c).
A method of mounting lining elements to a structure exposed to wear by means of an interface engagement fastening arrangement, said method comprising the steps of attaching at least one strip or sheet provided with a first part of the interface engagement fastening arrangement to a mounting surface of the structure, wherein the first part is exposed; providing lining elements having a second part of the interface engagement fastening arrangement; and attaching said second part of the lining elements to said exposed first part of the interface engagement fastening arrangement attached to the mounting surface of the structure; wherein the first and second parts of said interface engagement fastening arrangement are engaged by means of corresponding hook-like projections and matching loops of a hook and loop fastener provided on said first and second parts (50a, 50b), respectively; whereby said lining element mounting is obtained; and wherein the hook-like projections of the hook and loop fastener comprise: (i) a number of mushroom shaped protrusions each having a hat portion configured to be received in a matching loop of the hook and loop fastener, wherein the hat portion of the mushroom shaped protrusion and the matching loop are engaged when the hat portion is penetrated through the loop; or (ii) a number of T-hooks each having a T-shaped portion configured to be received in a matching loop of the hook and loop fastener, wherein the T-shaped portion of the T-hook and the matching loop are engaged when the T-shaped portion is penetrated through the loop. (i) a number of mushroom shaped protrusions each having a hat portion configured to be received in a matching loop of the hook and loop fastener, wherein the hat portion of the mushroom shaped protrusion and the matching loop are engaged when the hat portion is penetrated through the loop; or (ii) a number of T-hooks each having a T-shaped portion configured to be received in a matching loop of the hook and loop fastener, wherein the T-shaped portion of the T-hook and the matching loop are engaged when the T-shaped portion is penetrated through the loop.
An angle of attack sensor comprising: a housing having an open end and a closed end; a faceplate positioned on the open end of the housing, the faceplate comprising: a periphery at an outer edge of the faceplate; a central opening; mounting bores extending through the faceplate around the periphery of the faceplate; and an exterior surface extending from the periphery to the central opening; and a vane assembly extending through the central opening of the faceplate, wherein the vane assembly includes a vane hub positioned in the central opening of the faceplate and a vane connected to the vane hub, wherein an exterior surface of the vane hub and the vane are configured to be positioned above a skin of an aircraft; wherein the exterior surface of the faceplate has a sloped profile from the periphery to the central opening; and wherein the exterior surface of the faceplate has a slope equal to or between 6 degrees and 12 degrees and, when mounted on the aircraft, a distance from a tip of the vane to the skin of the aircraft is between 7.874 cm and 8.128 cm. a housing having an open end and a closed end; a faceplate positioned on the open end of the housing, the faceplate comprising: a periphery at an outer edge of the faceplate; a central opening; mounting bores extending through the faceplate around the periphery of the faceplate; and an exterior surface extending from the periphery to the central opening; and a periphery at an outer edge of the faceplate; a central opening; mounting bores extending through the faceplate around the periphery of the faceplate; and an exterior surface extending from the periphery to the central opening; and a vane assembly extending through the central opening of the faceplate, wherein the vane assembly includes a vane hub positioned in the central opening of the faceplate and a vane connected to the vane hub, wherein an exterior surface of the vane hub and the vane are configured to be positioned above a skin of an aircraft; wherein the exterior surface of the faceplate has a sloped profile from the periphery to the central opening; and wherein the exterior surface of the faceplate has a slope equal to or between 6 degrees and 12 degrees and, when mounted on the aircraft, a distance from a tip of the vane to the skin of the aircraft is between 7.874 cm and 8.128 cm.
A source of X-rays comprising a source of electrons generating an electron beam of nanometric size and a target, said target (10, 110) being configured to send an X-ray beam by illumination by the electron beam, said target (10, 110) comprising at least one elongated nanostructure, said nanostructure comprising at a free end a material ©capable of generating high-energy X-rays, said elongated nanostructure comprising a first portion attached to a substrate by an end, said first portion being in material capable of generating low-energy X-rays and having an atomic number less than 15, and a second portion, said second portion being in the material © capable of generating high-energy X-rays and having an atomic number greater than 20, said first and second portions having a transverse dimension between 1 nm and 100 nm.
A method for communication, comprising: transmitting a first uplink message from a first remote node to a central node in a wireless communication system according to a first frequency hopping scheme, the first frequency hopping scheme being a synchronized, time-slotted, frequency hopping scheme; transmitting a second uplink message from a second remote node to the central node in the wireless communication system according to a second frequency hopping scheme, different from the first scheme, the second frequency hopping scheme being a non-synchronized frequency hopping scheme; and the method characterised by comprising: concurrently employing both the first and second frequency hopping schemes at the central node to receive and process both the first and the second uplink messages at the central node, said concurrently employing comprising employing said second frequency hopping scheme during idle periods in said first frequency hopping scheme; wherein the second remote node transmits the second uplink message using the second frequency hopping scheme in order to re-synchronize with the central node after having lost synchronization. transmitting a first uplink message from a first remote node to a central node in a wireless communication system according to a first frequency hopping scheme, the first frequency hopping scheme being a synchronized, time-slotted, frequency hopping scheme; transmitting a second uplink message from a second remote node to the central node in the wireless communication system according to a second frequency hopping scheme, different from the first scheme, the second frequency hopping scheme being a non-synchronized frequency hopping scheme; and the method characterised by comprising: concurrently employing both the first and second frequency hopping schemes at the central node to receive and process both the first and the second uplink messages at the central node, said concurrently employing comprising employing said second frequency hopping scheme during idle periods in said first frequency hopping scheme; wherein the second remote node transmits the second uplink message using the second frequency hopping scheme in order to re-synchronize with the central node after having lost synchronization. concurrently employing both the first and second frequency hopping schemes at the central node to receive and process both the first and the second uplink messages at the central node, said concurrently employing comprising employing said second frequency hopping scheme during idle periods in said first frequency hopping scheme; wherein the second remote node transmits the second uplink message using the second frequency hopping scheme in order to re-synchronize with the central node after having lost synchronization.
Switch spring arrangement for operating a switch, comprising a) a first spring arm, with a contact dome at its free end for operating a switch which is arranged beneath the contact dome and wherein the first spring arm has lateral projections (24a, 24b); b) a second spring arm which can be operated by a card and in the process the first spring arm is operated by the second spring arm, characterized in that c) the second spring arm comprising a pair of spring arms is formed by two spring arms (3a, 3b) which are arranged substantially in parallel and at which lateral projections (34a, 34b) are provided which, in their position, are arranged correspondingly adjacent to the projections (24a, 24b) of the first spring arm, so that, when the second spring arm is operated in the direction of the first spring arm, the projections (34a, 34b) of the second spring arm interact with the projections (24a, 24b) of the first spring arm and the first spring arm is operated. a) a first spring arm, with a contact dome at its free end for operating a switch which is arranged beneath the contact dome and wherein the first spring arm has lateral projections (24a, 24b); b) a second spring arm which can be operated by a card and in the process the first spring arm is operated by the second spring arm, characterized in that c) the second spring arm comprising a pair of spring arms is formed by two spring arms (3a, 3b) which are arranged substantially in parallel and at which lateral projections (34a, 34b) are provided which, in their position, are arranged correspondingly adjacent to the projections (24a, 24b) of the first spring arm, so that, when the second spring arm is operated in the direction of the first spring arm, the projections (34a, 34b) of the second spring arm interact with the projections (24a, 24b) of the first spring arm and the first spring arm is operated.
A fluid flow adapter for a cylinder of a reciprocating compressor, said cylinder having a side wall provided with a valve seat, the side wall at least partially defining an internal volume of the cylinder, said fluid flow adapter comprising a filler element having an internal surface, an external surface, and a plurality of channels connecting the internal surface to the external surface, wherein said filler element is insertable in the cylinder such that said internal surface faces the internal volume of the cylinder and is flush with the side wall of the cylinder, and the external surface faces a valve inserted into the valve seat, said channel being configured to allow the passage of fluid between the internal volume of the cylinder and the valve, wherein a first group of said channels ends on a flat surface of the filler element and a second group of said channels ends on a cylindrical surface of the filler element.
A switching mode power supply, SMPS, comprising: a feedback unit operable to output a predetermined feedback voltage when an output voltage of the SMPS is not within a predetermined range; a pulse width modulation, PWM, controller that includes a protection pin and is operable to cut off a power supply of the SMPS when a voltage that is applied to the protection pin exceeds a predetermined threshold voltage; and a surge protection unit that is connected to the protection pin, the surge protection unit being operable to block an external surge voltage lower than a surge protection threshold voltage of the surge protection unit for blocking a surge voltage input from outside thereof, and, when the output voltage of the SMPS is not within the predetermined range, characterized in that the surge protection unit is configured to subtract the surge protection threshold voltage of the surge protection unit from the predetermined feedback voltage output from the feedback unit, and is further configured to apply the voltage resulting from said subtraction to the protection pin, wherein the surge protection unit is configured to set the surge protection threshold voltage higher than the predetermined threshold voltage of the protection pin. a feedback unit operable to output a predetermined feedback voltage when an output voltage of the SMPS is not within a predetermined range; a pulse width modulation, PWM, controller that includes a protection pin and is operable to cut off a power supply of the SMPS when a voltage that is applied to the protection pin exceeds a predetermined threshold voltage; and a surge protection unit that is connected to the protection pin, the surge protection unit being operable to block an external surge voltage lower than a surge protection threshold voltage of the surge protection unit for blocking a surge voltage input from outside thereof, and, when the output voltage of the SMPS is not within the predetermined range, characterized in that the surge protection unit is configured to subtract the surge protection threshold voltage of the surge protection unit from the predetermined feedback voltage output from the feedback unit, and is further configured to apply the voltage resulting from said subtraction to the protection pin, wherein the surge protection unit is configured to set the surge protection threshold voltage higher than the predetermined threshold voltage of the protection pin.