mhurhangee/ep-ind-claims huggingface dataset:
An nasal dilator, comprising a breathable backing layer having a first major surface and a second major surface, wherein the backing layer is a thin film selected from the group consisting of polyurethanes, polyesters and polyamides, and wherein the backing layer has a Moisture Vapor Transmission Rate (MVTR) of at least 600 g/m 2 /24hr; an adhesive layer on the first major surface of the breathable backing layer; at least one spring element attached to the breathable backing layer on at least one of the first major surface or second major surface, wherein the spring element extends parallel to the longest side of the breathable backing layer and is coextensive with at least 75% of the length of the longest side of the breathable backing layer; a carrier releasably attached to the second major surface of the breathable backing layer, wherein the carrier is more rigid than the breathable backing layer and less rigid than the spring element; and a release liner. a breathable backing layer having a first major surface and a second major surface, wherein the backing layer is a thin film selected from the group consisting of polyurethanes, polyesters and polyamides, and wherein the backing layer has a Moisture Vapor Transmission Rate (MVTR) of at least 600 g/m 2 /24hr; an adhesive layer on the first major surface of the breathable backing layer; at least one spring element attached to the breathable backing layer on at least one of the first major surface or second major surface, wherein the spring element extends parallel to the longest side of the breathable backing layer and is coextensive with at least 75% of the length of the longest side of the breathable backing layer; a carrier releasably attached to the second major surface of the breathable backing layer, wherein the carrier is more rigid than the breathable backing layer and less rigid than the spring element; and a release liner.
Heating device with a housing structure and with a holding device for holding a control unit, wherein the holding device has at least one latching element which is provided to fix the holding device to the housing structure of the heating device, wherein the at least one latching element is arranged exchangeably on the holding device, characterized in that the at least one latching element has an actuating arm which is intended upon actuation to release the holding device again from the housing structure of the heating device.
An information processing device comprising: a plurality of keys arranged: a storage means for storing for each of partial areas obtained by dividing a display area so that arrangement of the partial areas is identical to arrangement of the plurality of keys, data indicating a range of a partial area and information on a key arranged in a same position as the partial area; an identifying means for, if one of the plurality of keys is operated, identifying a partial area corresponding to the operated key, with reference to the storage means; characterized in that it further comprises: a determining means for determining whether a plurality of windows are displayed in the partial area identified by the identifying unit, and the plurality of windows are displayed in a stack; and a selecting means for, if it is determined by the determining unit that a plurality of windows are displayed in a stack, selecting a window displayed at a forefront among the windows displayed in a stack. a plurality of keys arranged: a storage means for storing for each of partial areas obtained by dividing a display area so that arrangement of the partial areas is identical to arrangement of the plurality of keys, data indicating a range of a partial area and information on a key arranged in a same position as the partial area; an identifying means for, if one of the plurality of keys is operated, identifying a partial area corresponding to the operated key, with reference to the storage means; characterized in that it further comprises: a determining means for determining whether a plurality of windows are displayed in the partial area identified by the identifying unit, and the plurality of windows are displayed in a stack; and a selecting means for, if it is determined by the determining unit that a plurality of windows are displayed in a stack, selecting a window displayed at a forefront among the windows displayed in a stack. a storage means for storing for each of partial areas obtained by dividing a display area so that arrangement of the partial areas is identical to arrangement of the plurality of keys, data indicating a range of a partial area and information on a key arranged in a same position as the partial area; an identifying means for, if one of the plurality of keys is operated, identifying a partial area corresponding to the operated key, with reference to the storage means; characterized in that it further comprises: a determining means for determining whether a plurality of windows are displayed in the partial area identified by the identifying unit, and the plurality of windows are displayed in a stack; and a selecting means for, if it is determined by the determining unit that a plurality of windows are displayed in a stack, selecting a window displayed at a forefront among the windows displayed in a stack.
A multi-channel audio encoder for providing an encoded representation on the basis of at least two input audio signals (810;812), wherein the multi-channel audio encoder is configured to provide one or more downmix signals on the basis of the at least two input audio signals, and wherein the multi-channel audio encoder is configured to provide one or more parameters describing a relationship between the at least two input audio signals, and wherein the multi-channel audio encoder is configured to provide a decorrelation complexity parameter describing a complexity of a decorrelation to be used at the side of an audio decoder, characterized in that the decorrelation complexity parameter determines a number K of decorrelators to be used in a multi-channel decorrelator premixing a first set of N decorrelator input signals into a second set of K decorrelator input signals, and wherein the decorrelation complexity parameter determines a selection of a premixing matrix used to premix the first set of N decorrelator input signals into the second set of K decorrelator input signals in the multi-channel decorrelator. wherein the multi-channel audio encoder is configured to provide one or more downmix signals on the basis of the at least two input audio signals, and wherein the multi-channel audio encoder is configured to provide one or more parameters describing a relationship between the at least two input audio signals, and wherein the multi-channel audio encoder is configured to provide a decorrelation complexity parameter describing a complexity of a decorrelation to be used at the side of an audio decoder, characterized in that the decorrelation complexity parameter determines a number K of decorrelators to be used in a multi-channel decorrelator premixing a first set of N decorrelator input signals into a second set of K decorrelator input signals, and wherein the decorrelation complexity parameter determines a selection of a premixing matrix used to premix the first set of N decorrelator input signals into the second set of K decorrelator input signals in the multi-channel decorrelator.
An electronic device (1, 2, 3), comprising: a touch panel; a housing (11, 21, 31); a moving element (19, 29, 39) connected to the touch panel; and an elastic plate (14, 24, 34) comprising a first portion (141, 241, 341) connected to the touch panel, a second portion (142, 242, 342) connected to the moving element (19, 29, 39), a third portion (143, 243, 343) connected to the housing (11, 21, 31), a first elastic member (144, 244, 344) connected between the first portion (141, 241, 341) and the third portion (143, 243, 343), and a second elastic member (145, 245, 345) connected between the second portion (142, 242, 342) and the third portion (143, 243, 343); wherein the moving element (19, 29, 39) comprises an actuator (13, 23, 33) connected to the touch panel and a counter mass (12, 22, 32) connected to the second portion (142, 242, 342). a touch panel; a housing (11, 21, 31); a moving element (19, 29, 39) connected to the touch panel; and an elastic plate (14, 24, 34) comprising a first portion (141, 241, 341) connected to the touch panel, a second portion (142, 242, 342) connected to the moving element (19, 29, 39), a third portion (143, 243, 343) connected to the housing (11, 21, 31), a first elastic member (144, 244, 344) connected between the first portion (141, 241, 341) and the third portion (143, 243, 343), and a second elastic member (145, 245, 345) connected between the second portion (142, 242, 342) and the third portion (143, 243, 343); wherein the moving element (19, 29, 39) comprises an actuator (13, 23, 33) connected to the touch panel and a counter mass (12, 22, 32) connected to the second portion (142, 242, 342).
Thermal conditioning apparatus, said apparatus comprising: • a first circuit operatively connected to a first heat pump suitable for heating a thermal fluid circulating in said first circuit by heat exchange between said thermal fluid and a refrigerant fluid of said first heat pump, • a tank comprised in said first circuit, said tank delimiting a chamber apt to contain at least a part of the thermal fluid heated by said first heat pump, • a segment of a domestic hot water circuit, said segment being housed in said chamber and suitable for allowing a heat exchange between the domestic water flowing through the inside of said segment and the part of thermal fluid contained in said chamber, characterized in that it comprises a condenser of a second heat pump distinct from said first heat pump, said condenser being housed in said chamber and said second heat pump being suitable for heating the part of the thermal fluid contained in said chamber, and in that said first circuit is provided with a three-way diverter valve, which is placed between the first heat pump and said tank, such that said diverter valve operates between a first position, in which it allows said thermal fluid to pass from said first heat pump towards said tank, and a second position, in which said diverter valve blocks the passage of said thermal fluid towards said tank and introduces it into a second circuit of said apparatus, said second circuit being suitable for connection to a medium-temperature and/or low-temperature plant (20a, 20b) for conditioning air in one or more environments. • a first circuit operatively connected to a first heat pump suitable for heating a thermal fluid circulating in said first circuit by heat exchange between said thermal fluid and a refrigerant fluid of said first heat pump, • a tank comprised in said first circuit, said tank delimiting a chamber apt to contain at least a part of the thermal fluid heated by said first heat pump, • a segment of a domestic hot water circuit, said segment being housed in said chamber and suitable for allowing a heat exchange between the domestic water flowing through the inside of said segment and the part of thermal fluid contained in said chamber,
A lithium-ion battery comprising a positive electrode plate, a negative electrode plate, a separator and an electrolyte, the positive electrode plate comprising a positive current collector and a positive film, the positive film being provided on at least one surface of the positive current collector and comprising a positive active material, the negative electrode plate comprising a negative current collector and a negative film, the negative film being provided on at least one surface of the negative current collector and comprising a negative active material; wherein the positive active material comprises a material with a chemical formula of Li a Ni x Co y M 1-x-y O 2, M is one or two selected from Al and Mn, 0.95≤a≤1.2, 0<x<1, 0<y<1, 0<x+y<1; the negative active material comprises graphite; characterized in that an OI value of the positive film represented by OI c and an OI value of the negative film represented by OI a satisfy a relationship:0.2≤OI a /OI c ≤3; OI c =C 003 /C 110, C 003 represents characteristic diffraction peak area of crystal plane in X-ray diffraction pattern of the positive film, C 110 represents characteristic diffraction peak area of (1 10) crystal plane in X-ray diffraction pattern of the positive film; OI a -C 004 /C 110,, C 004 represents characteristic diffraction peak area of crystal plane in X-ray diffraction pattern of the negative film, C 110 represents characteristic diffraction peak area of crystal plane in X-ray diffraction pattern of the negative film, measured as disclosed in the description; the OI value of the positive film represented by OI c is 5-80, wherein a pressing density of the positive film is 3.0 g/cm 3 - 3.5 g/cm 3 and a pressing density of the negative film is 1.0 g/ cm 3 - 1.6 g/cm 3. the positive active material comprises a material with a chemical formula of Li a Ni x Co y M 1-x-y O 2, M is one or two selected from Al and Mn, 0.95≤a≤1.2, 0<x<1, 0<y<1, 0<x+y<1; the negative active material comprises graphite; characterized in that an OI value of the positive film represented by OI c and an OI value of the negative film represented by OI a satisfy a relationship:0.2≤OI a /OI c ≤3; OI c =C 003 /C 110, C 003 represents characteristic diffraction peak area of crystal plane in X-ray diffraction pattern of the positive film, C 110 represents characteristic diffraction peak area of (1 10) crystal plane in X-ray diffraction pattern of the positive film; OI a -C 004 /C 110,, C 004 represents characteristic diffraction peak area of crystal plane in X-ray diffraction pattern of the negative film, C 110 represents characteristic diffraction peak area of crystal plane in X-ray diffraction pattern of the negative film, measured as disclosed in the description; the OI value of the positive film represented by OI c is 5-80, wherein a pressing density of the positive film is 3.0 g/cm 3 - 3.5 g/cm 3 and a pressing density of the negative film is 1.0 g/ cm 3 - 1.6 g/cm 3.
An ultrasonic bonding tool for an ultrasonic bonding apparatus for applying pressure from an upper side to a to-be-bonded member placed on a surface of a thin-film base and for applying ultrasonic vibration thereto to thereby bond said to-be-bonded member onto the surface of said thin-film base, wherein said ultrasonic bonding tool has, at a distal end portion thereof, a chip portion that is brought into contact with said to-be-bonded member at a time of ultrasonic bonding, a surface portion of said chip portion which is brought into contact with said to-be-bonded member has a plurality of planar portions formed so as to be separated from one another and a plurality of concavities formed between said plurality of planar portions, characterized in that said plurality of planar portions having overall flatness of 2 μm or less, wherein each of said plurality of planar portions has fine unevenness in a range that satisfies a flatness of 2 μm or less. said ultrasonic bonding tool has, at a distal end portion thereof, a chip portion that is brought into contact with said to-be-bonded member at a time of ultrasonic bonding, a surface portion of said chip portion which is brought into contact with said to-be-bonded member has a plurality of planar portions formed so as to be separated from one another and a plurality of concavities formed between said plurality of planar portions, characterized in that said plurality of planar portions having overall flatness of 2 μm or less, wherein each of said plurality of planar portions has fine unevenness in a range that satisfies a flatness of 2 μm or less.
A planetary gear comprising: - a sun shaft (101, 301) comprising a sun wheel, - a gear ring (103, 303), - a planet carrier (104, 304), - planet wheels (105-107, 305-308) meshing with the sun wheel and with the gear ring, and - planet wheel shafts (109, 309-312) supporting the planet wheels rotatably with respect to the planet carrier, wherein each of the planet wheel shafts is arranged to support a respective one of the planet wheels so that, in an unloaded situation, a geometric axis of rotation of the planet wheel under consideration is skewed with respect to an axial direction (z) of the planetary gear, and, in a loaded situation, the skewedness of the geometric axis of rotation of the planet wheel is at least partly eliminated by twisting deformation occurring in the planet carrier and caused by torque directed to the planet carrier, characterized in that each of the planet wheel shafts is prestressed in the unloaded situation where the planet carrier is free from the twisting deformation caused by torque directed to the planet carrier, and, in the loaded situation, prestress of each of the planet wheel shafts is reduced in a response to the twisting deformation of the planet carrier. - a sun shaft (101, 301) comprising a sun wheel, - a gear ring (103, 303), - a planet carrier (104, 304), - planet wheels (105-107, 305-308) meshing with the sun wheel and with the gear ring, and - planet wheel shafts (109, 309-312) supporting the planet wheels rotatably with respect to the planet carrier,
A method for scheduling transmissions in a multi-user wireless system, the method comprising: • determining, by a transmission point, at least one neighboring wireless device for each of a plurality of wireless devices located within a coverage area of the transmission point (S 602); • performing a first scheduling of scheduling, by the transmission point, a wireless device among the plurality of devices, according to neighboring information of the at least one neighboring device neighboring the wireless device, to transmit data over different time-frequency resources than those in which the at least one neighboring device is scheduled to receive data, and performing the first scheduling for each of the wireless devices of the plurality of wireless devices (S 604); • performing a second scheduling of scheduling, by the transmission point, the wireless device of the plurality of wireless devices to transmit data to the transmission point on a time frequency resource at a same time on which at least one non-neighbor wireless device not neighboring the wireless device is scheduled to receive data from the transmission point on the time-frequency resource, and performing the second scheduling for each of the wireless devices of the plurality of wireless devices. • determining, by a transmission point, at least one neighboring wireless device for each of a plurality of wireless devices located within a coverage area of the transmission point (S 602); • performing a first scheduling of scheduling, by the transmission point, a wireless device among the plurality of devices, according to neighboring information of the at least one neighboring device neighboring the wireless device, to transmit data over different time-frequency resources than those in which the at least one neighboring device is scheduled to receive data, and performing the first scheduling for each of the wireless devices of the plurality of wireless devices (S 604); • performing a second scheduling of scheduling, by the transmission point, the wireless device of the plurality of wireless devices to transmit data to the transmission point on a time frequency resource at a same time on which at least one non-neighbor wireless device not neighboring the wireless device is scheduled to receive data from the transmission point on the time-frequency resource, and performing the second scheduling for each of the wireless devices of the plurality of wireless devices.
Method for making a device comprising at least one strained semiconducting zone that will form a transistor channel comprising the following sequence of steps, in this order: a) forming one or several stress blocks (30b, 30c, 130b, 130c) based on a material (32, 132) with an intrinsic stress around a zone (12a, 102a) based on a semiconducting material in which a transistor channel will be made and on which a transistor gate will be formed, the stress block(s) being arranged to induce a given stress in this zone (12a, 102), b) forming a gate block on this zone (12a, 102), the gate block being arranged between the stress blocks, c) at least partially removing the stress block(s) (30b, 30c, 130b, 130c), the gate block being chosen in step b) with a Young's modulus and thickness such that the stress blocks are at least partially removed in step c), the given stress is at least partially maintained in the channel zone. a) forming one or several stress blocks (30b, 30c, 130b, 130c) based on a material (32, 132) with an intrinsic stress around a zone (12a, 102a) based on a semiconducting material in which a transistor channel will be made and on which a transistor gate will be formed, the stress block(s) being arranged to induce a given stress in this zone (12a, 102), b) forming a gate block on this zone (12a, 102), the gate block being arranged between the stress blocks, c) at least partially removing the stress block(s) (30b, 30c, 130b, 130c), the gate block being chosen in step b) with a Young's modulus and thickness such that the stress blocks are at least partially removed in step c), the given stress is at least partially maintained in the channel zone.