mhurhangee/ep-ind-claims huggingface dataset:
A wiring board comprising: an insulating base comprising a main face and a side face; a cutout section having a quadrilateral shape opened in the main face and the side face; an electrode disposed on an inner face of the cutout section; and a wiring conductor disposed on one of an inner part and a surface of the insulating base, and connected to the electrode, characterised in that a side wall of the cutout section comprises a protruding portion that curves and protrudes outward relative to the side face at a center region in a direction along the side face, wherein the electrode is extended about 0.05 to 0.1 mm into the inner part of the insulating base at a connecting portion with the wiring conductor. an insulating base comprising a main face and a side face; a cutout section having a quadrilateral shape opened in the main face and the side face; an electrode disposed on an inner face of the cutout section; and a wiring conductor disposed on one of an inner part and a surface of the insulating base, and connected to the electrode, characterised in that a side wall of the cutout section comprises a protruding portion that curves and protrudes outward relative to the side face at a center region in a direction along the side face, wherein the electrode is extended about 0.05 to 0.1 mm into the inner part of the insulating base at a connecting portion with the wiring conductor.
A delay circuit, comprising: a plurality of delay stages coupled in series, wherein each of the delay stages comprises: a delay gate on a forward path of the delay circuit, wherein the delay gate is configured to pass a signal on the forward path or to block the signal on the forward path depending on a logic state of a respective select signal; and a multiplexer on a return path of the delay circuit, wherein the multiplexer is configured to pass a signal on the return path or to route the signal on the forward path to the return path depending on the logic state of the respective select signal; wherein the delay gates and the multiplexers are configured to maintain static output logic states when logic states of one or more of the select signals are changed during a change in a delay setting of the delay circuit, and wherein the delay gates in odd numbered ones of the delay stages comprise NAND gates and the delay gates in even numbered ones of the delay stages comprise NOR gates, or the delay gates in odd numbered ones of the delay stages comprise NOR gates and delay gates in even numbered ones of the delay stages comprise NAND gates. a plurality of delay stages coupled in series, wherein each of the delay stages comprises: a delay gate on a forward path of the delay circuit, wherein the delay gate is configured to pass a signal on the forward path or to block the signal on the forward path depending on a logic state of a respective select signal; and a multiplexer on a return path of the delay circuit, wherein the multiplexer is configured to pass a signal on the return path or to route the signal on the forward path to the return path depending on the logic state of the respective select signal; a delay gate on a forward path of the delay circuit, wherein the delay gate is configured to pass a signal on the forward path or to block the signal on the forward path depending on a logic state of a respective select signal; and a multiplexer on a return path of the delay circuit, wherein the multiplexer is configured to pass a signal on the return path or to route the signal on the forward path to the return path depending on the logic state of the respective select signal; wherein the delay gates and the multiplexers are configured to maintain static output logic states when logic states of one or more of the select signals are changed during a change in a delay setting of the delay circuit, and wherein the delay gates in odd numbered ones of the delay stages comprise NAND gates and the delay gates in even numbered ones of the delay stages comprise NOR gates, or the delay gates in odd numbered ones of the delay stages comprise NOR gates and delay gates in even numbered ones of the delay stages comprise NAND gates.
A system for stabilizing a hybrid electric vehicle (10; 100; 200) having a plurality of wheels (30a-d) and towing a trailer (12; 102; 202), the system comprising: a regenerative braking system for braking at least one wheel (30a-d; 130a-d; 230a-d) of the hybrid electric vehicle (10; 100; 200); and a non-regenerative braking system for braking at least one wheel (30a-d; 130a-d; 230a-d) of the hybrid electric vehicle (10; 100; 200); characterized in that it further comprises a stabilization system coupled to the regenerative braking system and the non-regenerative braking system, the stabilization system determines a direction of rotation and a speed of the hybrid electric vehicle (10; 100; 200), compares the speed of the hybrid electric vehicle (10; 100; 200) to a predetermined low speed threshold value and a predetermined high speed threshold value, instructs the regenerative braking system to brake at least one wheel (30a-d; 130a-d; 230a-d) included in the hybrid electric vehicle (10; 100; 200) when the speed is less than or equal to the predetermined low speed threshold value, and instructs the regenerative braking system to brake at least one wheel (30a-d; 130a-d; 230a-d) included on a side of the hybrid electric vehicle (10; 100; 200) opposite the direction of rotation and at least one of regenerative braking system and the non-regenerative braking system to provide an extra stabilizing braking torque to at least one wheel (30a-d; 130a-d; 230a-d) included on a side of the hybrid electric vehicle (10; 100; 200) opposite the direction of rotation when the speed is greater than the predetermined high speed threshold value. a regenerative braking system for braking at least one wheel (30a-d; 130a-d; 230a-d) of the hybrid electric vehicle (10; 100; 200); and a non-regenerative braking system for braking at least one wheel (30a-d; 130a-d; 230a-d) of the hybrid electric vehicle (10; 100; 200); characterized in that it further comprises a stabilization system coupled to the regenerative braking system and the non-regenerative braking system, the stabilization system determines a direction of rotation and a speed of the hybrid electric vehicle (10; 100; 200), compares the speed of the hybrid electric vehicle (10; 100; 200) to a predetermined low speed threshold value and a predetermined high speed threshold value, instructs the regenerative braking system to brake at least one wheel (30a-d; 130a-d; 230a-d) included in the hybrid electric vehicle (10; 100; 200) when the speed is less than or equal to the predetermined low speed threshold value, and instructs the regenerative braking system to brake at least one wheel (30a-d; 130a-d; 230a-d) included on a side of the hybrid electric vehicle (10; 100; 200) opposite the direction of rotation and at least one of regenerative braking system and the non-regenerative braking system to provide an extra stabilizing braking torque to at least one wheel (30a-d; 130a-d; 230a-d) included on a side of the hybrid electric vehicle (10; 100; 200) opposite the direction of rotation when the speed is greater than the predetermined high speed threshold value.
An MAS probehead, which is designed in such a way that it can be placed inside a magnet bore of an NMR-MAS arrangement during operation, having a sample chamber, which comprises an MAS stator for receiving an MAS rotor and an RF coil that serves to radiate RF pulses into an NMR sample and/or to receive RF signals from the NMR sample, wherein a temperature-control apparatus is present in order to guide gas at a first variable temperature T 1 into the sample chamber and through the MAS stator during an NMR measurement so as to adjust the temperature of the NMR sample and in order to simultaneously guide pressurized gas at a second variable temperature T 2 around the sample chamber, characterized in that the MAS stator is surrounded by a shielding tube of the MAS probehead, which is made of electrically conducting material, for shielding against RF radiation, and that the MAS probehead contains an encapsulation device, the interior of which defines the sample chamber, wherein the sample chamber is surrounded by the encapsulation device, at least in the azimuthal direction with respect to an axis of the magnet bore and counter to the flow direction of the pressurized gas, wherein an air gap is resulting between the encapsulation device and the shielding tube of the NMR-MAS arrangement, and that the encapsulation device is located within the shielding tube in such a way that the gas flow with the pressurized gas at the second variable temperature T 2 is guided outside of the sample chamber through the air gap between the encapsulation device and the shielding tube. the MAS stator is surrounded by a shielding tube of the MAS probehead, which is made of electrically conducting material, for shielding against RF radiation, and that the MAS probehead contains an encapsulation device, the interior of which defines the sample chamber, wherein the sample chamber is surrounded by the encapsulation device, at least in the azimuthal direction with respect to an axis of the magnet bore and counter to the flow direction of the pressurized gas, wherein an air gap is resulting between the encapsulation device and the shielding tube of the NMR-MAS arrangement, and that the encapsulation device is located within the shielding tube in such a way that the gas flow with the pressurized gas at the second variable temperature T 2 is guided outside of the sample chamber through the air gap between the encapsulation device and the shielding tube.
A system for evaluating agricultural material, the system comprising: a housing having a passage in or through an interior of the housing with an inlet for receiving agricultural material and an outlet for outputting the agricultural material; a wall opening in a wall of the passage; and an imaging device having a lens located within a border, characterized in that the imaging device is pivotally mounted for rotation with respect to the housing such that in a closed state the border rests on, engages or interlocks the wall opening, and in an open state the border exposes the wall opening and the interior of the housing. a housing having a passage in or through an interior of the housing with an inlet for receiving agricultural material and an outlet for outputting the agricultural material; a wall opening in a wall of the passage; and an imaging device having a lens located within a border, characterized in that the imaging device is pivotally mounted for rotation with respect to the housing such that in a closed state the border rests on, engages or interlocks the wall opening, and in an open state the border exposes the wall opening and the interior of the housing.
A bag for portioning, protecting, storing and/or transporting at least one packaged product, having at least one packaging means made of packing material, which serves to enclose and/or to hold together the packaged product, wherein the packaging means is at least single-layered and has a tube piece region with a longitudinal extent, and the packaging means has an inner wall (11.2) and an outer wall (11.1), wherein the inner wall (11.2) is directed towards the packaged product, and the outer wall (11.1) is directed away from the packaged product, and having a first end (12.1) on the tube piece region, which is formed as the bottom region of the bag, and having a second end (12.2) on the tube piece region, which is arranged on the tube piece region opposite the first end (12.1) and is configured in the form of a head region, wherein at least one layer (13, 14, 15) of the packaging means has at least partially nonwoven material, characterized in that at least two or more transverse folds or transverse rolls are provided at an end (12.1, 12.2) on the tube piece region, wherein at least one reinforcement slip of paper is used, which at the end (12.1, 12.2) is fastened with the transverse folds or transverse rolls on the tube piece region and achieves a stabilization, wherein the reinforcement slip of paper is designed to be permeable to air.
A method for manufacturing a surface-reinforced solid wood section material comprising the following steps: Drying: drying wood with density smaller than 700 kg/m 3 until their moisture content reaches to 5-12%; Compression: compressing the dried wood surface until they are extremely tight; and characterized in that it also comprises the steps of: Pre-carbonization: pre-carbonizing the wood at a temperature under 125-150 °C for 2-4 hours; and Carbonization: carbonizing the wood. Drying: drying wood with density smaller than 700 kg/m 3 until their moisture content reaches to 5-12%; Compression: compressing the dried wood surface until they are extremely tight; and characterized in that it also comprises the steps of: Pre-carbonization: pre-carbonizing the wood at a temperature under 125-150 °C for 2-4 hours; and Carbonization: carbonizing the wood. Pre-carbonization: pre-carbonizing the wood at a temperature under 125-150 °C for 2-4 hours; and Carbonization: carbonizing the wood.
A biomagnetism measuring device comprising: a plurality of magnetic sensors having detection surfaces configured to detect magnetism of a living body as a subject to be measured; a retaining portion including retaining holes (12a, 12b) configured to hold the plurality of magnetic sensors such that the magnetic sensors can individually move freely; and a movement mechanism configured to move the magnetic sensors individually in directions that approach and separate from the subject to be measured, and thereby is configured to cause the magnetic sensors to come into contact with or separate from the subject to be measured, characterized in that each magnetic sensor of the plurality of magnetic sensors is a giant magnetoresistance sensor (GMR sensor), a tunnel magneto resistance sensor (TMR sensor), an anisotropic magneto resistive sensor (AMR sensor), a magnetic impedance sensor (MI sensor) or a fluxgate sensor, and the magnetic sensors further include additional biological information acquisition means for acquiring biological information selected from the group consisting of electrocardiogram, heart rate, pulse, the number of breaths, and muscle potential. a plurality of magnetic sensors having detection surfaces configured to detect magnetism of a living body as a subject to be measured; a retaining portion including retaining holes (12a, 12b) configured to hold the plurality of magnetic sensors such that the magnetic sensors can individually move freely; and a movement mechanism configured to move the magnetic sensors individually in directions that approach and separate from the subject to be measured, and thereby is configured to cause the magnetic sensors to come into contact with or separate from the subject to be measured, characterized in that each magnetic sensor of the plurality of magnetic sensors is a giant magnetoresistance sensor (GMR sensor), a tunnel magneto resistance sensor (TMR sensor), an anisotropic magneto resistive sensor (AMR sensor), a magnetic impedance sensor (MI sensor) or a fluxgate sensor, and the magnetic sensors further include additional biological information acquisition means for acquiring biological information selected from the group consisting of electrocardiogram, heart rate, pulse, the number of breaths, and muscle potential.
A surgical staple cartridge comprising: a cartridge body operably supporting a plurality of surgical staples therein, said cartridge body having a proximal end and a distal end and a deck extending therebetween; and measurement means on said deck for determining a size of tissue placed thereon; characterised in that said means comprises means for forming a mark on said deck that substantially corresponds to the size of the tissue placed thereon when contacted by the tissue. a cartridge body operably supporting a plurality of surgical staples therein, said cartridge body having a proximal end and a distal end and a deck extending therebetween; and measurement means on said deck for determining a size of tissue placed thereon; characterised in that said means comprises means for forming a mark on said deck that substantially corresponds to the size of the tissue placed thereon when contacted by the tissue.
A method of optimalization of cutting of flat products from a natural material, mainly from wood, where there is a set of desired shapes and dimensions of products, which are to be cut, determined in advance, whereby there is a predetermined group of elements in the set, with shapes and dimensions of the products which are to be cut, and where a visible side of a material is firstly scanned; scanning boundaries are set by means of an available surface of the material; defects of the material which manifest themselves by defined optical differences from an environment are identified in a scanned image; a position on a visible surface of the material is assigned to the identified defects; then a cutting plan is created, whereby this cutting plan sets boundaries of the individual flat products, whereby during the creation of the cutting plan places with the identified defects of the material are taken into account, whereby a distribution of the desired products on the available surface of the material is optimalized by means of a numerical algorithm, a weight coefficient is assigned to each element from the set of the desired shapes and dimensions of products, is characterized by the fact, that the optimalization of the distribution of the desired products is realized with a goal of achieving the highest sum of a number of the products multiplied by the weight coefficient of a given product, whereby a condition that all elements from the set of the desired products have to be cut, and subsequently the material is cut by the cutting machine acting on a point without any limitation concerning a mutual position of cut lines of the neighboring products. whereby there is a predetermined group of elements in the set, with shapes and dimensions of the products which are to be cut, and where a visible side of a material is firstly scanned; scanning boundaries are set by means of an available surface of the material; defects of the material which manifest themselves by defined optical differences from an environment are identified in a scanned image; a position on a visible surface of the material is assigned to the identified defects; then a cutting plan is created, whereby this cutting plan sets boundaries of the individual flat products, whereby during the creation of the cutting plan places with the identified defects of the material are taken into account, whereby a distribution of the desired products on the available surface of the material is optimalized by means of a numerical algorithm, a weight coefficient is assigned to each element from the set of the desired shapes and dimensions of products, is characterized by the fact, that the optimalization of the distribution of the desired products is realized with a goal of achieving the highest sum of a number of the products multiplied by the weight coefficient of a given product, whereby a condition that all elements from the set of the desired products have to be cut, and subsequently the material is cut by the cutting machine acting on a point without any limitation concerning a mutual position of cut lines of the neighboring products.
A mobile communication method, in which a mobile station transmits uplink signals to a radio base station (eNB) using a plurality of carriers (CC # 1, CC #11, CC #12; CC #2, CC #21; CC #3, CC #31, CC #32) having different carrier frequencies, the method comprising: a step of assigning, by the radio base station (eNB), identification information to each group of the plurality of carriers (CC # 1, CC #11, CC #12; CC #2, CC #21; CC #3, CC #31, CC #32), to which a same transmission timing adjustment information is applied; a step of transmitting, by the radio base station, Control Element in a MAC layer designating transmission timing adjustment information with the identification information, to the mobile station; and a step of adjusting, by the mobile station, a transmission timing of the uplink signals in the plurality of carriers (CC # 1, CC #11, CC #12; CC #2, CC #21; CC #3, CC #31, CC #32) based on the transmission timing adjustment information designated with the identification information extracted from the received Control Element. a step of assigning, by the radio base station (eNB), identification information to each group of the plurality of carriers (CC # 1, CC #11, CC #12; CC #2, CC #21; CC #3, CC #31, CC #32), to which a same transmission timing adjustment information is applied; a step of transmitting, by the radio base station, Control Element in a MAC layer designating transmission timing adjustment information with the identification information, to the mobile station; and a step of adjusting, by the mobile station, a transmission timing of the uplink signals in the plurality of carriers (CC # 1, CC #11, CC #12; CC #2, CC #21; CC #3, CC #31, CC #32) based on the transmission timing adjustment information designated with the identification information extracted from the received Control Element.
A spectroscopy system, comprising: an interferogram source configured to provide an IR signal containing an interferogram along an optical path; the optical path including a focal point along a path axis of a first portion of the optical path extending from said interferogram source; characterized in that the spectroscopy system further comprises: a Jacquinot stop including an aperture disposed substantially at said focal point, and a reflective surface substantially non-orthogonal to said path axis and facing said interferogram source, wherein said aperture passes an inner portion of said IR signal as an incident portion of said IR signal, and said reflective surface reflects an outer portion of said IR signal as a reflected portion of said IR signal; and a reference detection device to detect said reflected portion of said IR signal. an interferogram source configured to provide an IR signal containing an interferogram along an optical path; the optical path including a focal point along a path axis of a first portion of the optical path extending from said interferogram source; characterized in that the spectroscopy system further comprises: a Jacquinot stop including an aperture disposed substantially at said focal point, and a reflective surface substantially non-orthogonal to said path axis and facing said interferogram source, wherein said aperture passes an inner portion of said IR signal as an incident portion of said IR signal, and said reflective surface reflects an outer portion of said IR signal as a reflected portion of said IR signal; and a reference detection device to detect said reflected portion of said IR signal. a Jacquinot stop including an aperture disposed substantially at said focal point, and a reflective surface substantially non-orthogonal to said path axis and facing said interferogram source, wherein said aperture passes an inner portion of said IR signal as an incident portion of said IR signal, and said reflective surface reflects an outer portion of said IR signal as a reflected portion of said IR signal; and a reference detection device to detect said reflected portion of said IR signal.
A compound for use in treating elevated intraocular pressure, glaucoma, ocular hypertension, or primary open angle glaucoma in a human, wherein the compound is ((2R,3S,4R,SR)-5-(6-(cyclopentylamino)-9H-purin-9-yl)-3,4-dihydroxytetrahydrofuran-2-yl)methyl nitrate.