mhurhangee/ep-ind-claims huggingface dataset:
Cage nut device intended to be fitted in a structure comprising a bore having a first diameter, said device comprising: - a nut comprising a tubular body provided with an internal thread, said tubular body developing along a first longitudinal axis, and an axial end of said body connected to a collar, which is substantially planar and situated in an orthogonal plane to the longitudinal axis, - a nut support comprising a nut cage forming an internal housing suitable for accommodating the nut, the support also comprising a tubular portion, said tubular portion developing along a second longitudinal axis from an orifice of the base of the nut cage, on a side opposite the internal housing, such that the collar of the nut can be inserted into said internal housing, in a fitted position such that the first and second longitudinal axes are aligned, characterised in that an external surface of the tubular portion of the nut support comprises longitudinal splines including protruding edges situated on the same cylinder having a second diameter (D') intended to be less than the first diameter of the bore so as to provide a residual gap between the splines and a wall of the bore, said gap being intended to receive an adhesive to secure the nut support with the structure, and at least two longitudinal ribs having a third diameter (D") intended to be greater than the first diameter of the bore to enable an interference fit of the tubular portion in said bore. - a nut comprising a tubular body provided with an internal thread, said tubular body developing along a first longitudinal axis, and an axial end of said body connected to a collar, which is substantially planar and situated in an orthogonal plane to the longitudinal axis, - a nut support comprising a nut cage forming an internal housing suitable for accommodating the nut, the support also comprising a tubular portion, said tubular portion developing along a second longitudinal axis from an orifice of the base of the nut cage, on a side opposite the internal housing, such that the collar of the nut can be inserted into said internal housing, in a fitted position such that the first and second longitudinal axes are aligned,
A handheld input apparatus comprising: a body portion; a spoke plate fastened within the body and having multiple spokes that extend radially from a center of the spoke plate toward an interior surface of the body; a shaft positioned in the center of the spoke plate and extending longitudinally from the spoke plate toward a nose portion of the body; a tip fastened partially within the shaft and extending through the nose such that pressing the tip against an input surface causes the shaft to press against the spoke plate to cause one or more spokes of the multiple spokes to flex; and a flexible circuit including multiple strain sensor elements that are each attached to a different individual spoke of the multiple spokes, each strain sensor element being positioned to measure strain on a respective spoke such that input provided by the tip to the input surface varies according to different strain measurements detected via the strain sensor elements. a body portion; a spoke plate fastened within the body and having multiple spokes that extend radially from a center of the spoke plate toward an interior surface of the body; a shaft positioned in the center of the spoke plate and extending longitudinally from the spoke plate toward a nose portion of the body; a tip fastened partially within the shaft and extending through the nose such that pressing the tip against an input surface causes the shaft to press against the spoke plate to cause one or more spokes of the multiple spokes to flex; and a flexible circuit including multiple strain sensor elements that are each attached to a different individual spoke of the multiple spokes, each strain sensor element being positioned to measure strain on a respective spoke such that input provided by the tip to the input surface varies according to different strain measurements detected via the strain sensor elements.
Coupling apparatus for connecting two wagon bodies, with a coupling rod for transmitting longitudinal forces between the two wagon bodies, the coupling rod being fastened with its ends in each case in a movable bearing (5, 6) to the two coupling apparatus, and the coupling apparatus comprising a linkage mechanism which is independent of the coupling rod and is configured for the transmission of vertical and/or transverse forces between the two wagon bodies, with the result that the coupling rod is loaded exclusively in its longitudinal direction, characterized in that the linkage mechanism is configured as a coupling frame which is mounted by means of a first and a second joint (9.1, 9.2) which can be moved in each case about at least two parallel axes which are spaced apart from one another in the transverse and/or vertical direction, the first joint being assigned to one of the two wagon bodies and the second joint (9.1, 9.2) being assigned to the other one of the two wagon bodies.
A method for manufacturing a composite sheet comprising aerogel sheets the method comprising: a step S10 of preparing a fiber sheet; a step S20 of laminating the aerogel sheets on each of both surfaces of the fiber sheet; and a step S30 of applying heat and a pressure to the aerogel sheets and the fiber sheet, which are laminated, to bond the sheets to each other and to manufacture the composite sheet in which the aerogel sheets and the fiber sheet are laminated, characterized in that the method further comprises a step of performing needling on the aerogel sheets and the fiber sheet, which are laminated, to temporarily fix the aerogel sheet and the fiber sheet between the step S20 and the step S30. a step S10 of preparing a fiber sheet; a step S20 of laminating the aerogel sheets on each of both surfaces of the fiber sheet; and a step S30 of applying heat and a pressure to the aerogel sheets and the fiber sheet, which are laminated, to bond the sheets to each other and to manufacture the composite sheet in which the aerogel sheets and the fiber sheet are laminated, characterized in that the method further comprises a step of performing needling on the aerogel sheets and the fiber sheet, which are laminated, to temporarily fix the aerogel sheet and the fiber sheet between the step S20 and the step S30.
A voice signal encoding method, the method comprising: determining whether or not a transient is present in a current frame of a voice signal; if the transient is not present in the current frame: allocating a predetermined number of bits to the current frame which is a whole frame; if the transient is present in the current frame: dividing the current frame into a first section and a second section, and allocating the predetermined bits to the first section and the second section based on a position of the transient; and encoding the current frame using the allocated bits, wherein if the transient is present in the second section and the transient is not present in the first section, more bits are allocated to the second section in which the transient is present than to the first section in which the transient is not present, and wherein a sum of a number of allocated bits at the first section and a number of allocated bits at the second section is same as the predetermined number of bits. determining whether or not a transient is present in a current frame of a voice signal; if the transient is not present in the current frame: allocating a predetermined number of bits to the current frame which is a whole frame; if the transient is present in the current frame: dividing the current frame into a first section and a second section, and allocating the predetermined bits to the first section and the second section based on a position of the transient; and encoding the current frame using the allocated bits, wherein if the transient is present in the second section and the transient is not present in the first section, more bits are allocated to the second section in which the transient is present than to the first section in which the transient is not present, and wherein a sum of a number of allocated bits at the first section and a number of allocated bits at the second section is same as the predetermined number of bits. allocating a predetermined number of bits to the current frame which is a whole frame; if the transient is present in the current frame: dividing the current frame into a first section and a second section, and allocating the predetermined bits to the first section and the second section based on a position of the transient; and encoding the current frame using the allocated bits, dividing the current frame into a first section and a second section, and allocating the predetermined bits to the first section and the second section based on a position of the transient; and encoding the current frame using the allocated bits, wherein if the transient is present in the second section and the transient is not present in the first section, more bits are allocated to the second section in which the transient is present than to the first section in which the transient is not present, and wherein a sum of a number of allocated bits at the first section and a number of allocated bits at the second section is same as the predetermined number of bits.
A data structure being stored in a pre-recorded area of an optical recording medium, the data structure comprising a recording speed information, the recording speed information comprising: a first information indicating a maximum recording speed; a second information indicating a minimum recording speed; a third information indicating a predetermined recording speed different from the maximum and minimum recording speed; and a fourth information indicating a basic recording speed; wherein the recording speed information further comprises an applicable recording speed information indicating each applicable recording speed. a first information indicating a maximum recording speed; a second information indicating a minimum recording speed; a third information indicating a predetermined recording speed different from the maximum and minimum recording speed; and a fourth information indicating a basic recording speed;
A method, comprising the steps of: transmitting, from each electrical transmitter from a first plurality of electrical transmitters, an electrical signal from a plurality of electrical signals, the first plurality of electrical transmitters being included in a first optical transceiver and operatively coupled to a switch, the first optical transceiver including a controller and a variable optical attenuator, VOA, the controller being operatively coupled to the switch and the VOA; switching an electrical signal from the plurality of electrical signals to a spare electrical transmitter within a second plurality of electrical transmitters such that the plurality of electrical signals are transmitted via the second plurality of electrical transmitters, each electrical transmitter from the second plurality of electrical transmitters operatively coupled to an optical transmitter from a plurality of optical transmitters, the plurality of optical transmitters being operatively coupled to an optical multiplexer, at least one electrical transmitter from the second plurality of electrical transmitters being associated with a failure within the first optical transceiver; and sending, from the controller, a control signal to the VOA such that the VOA modulates with a signal representing control information for a second optical transceiver to be operatively coupled to the first optical transceiver, the control information being associated with the failure within the first optical transceiver. transmitting, from each electrical transmitter from a first plurality of electrical transmitters, an electrical signal from a plurality of electrical signals, the first plurality of electrical transmitters being included in a first optical transceiver and operatively coupled to a switch, the first optical transceiver including a controller and a variable optical attenuator, VOA, the controller being operatively coupled to the switch and the VOA; switching an electrical signal from the plurality of electrical signals to a spare electrical transmitter within a second plurality of electrical transmitters such that the plurality of electrical signals are transmitted via the second plurality of electrical transmitters, each electrical transmitter from the second plurality of electrical transmitters operatively coupled to an optical transmitter from a plurality of optical transmitters, the plurality of optical transmitters being operatively coupled to an optical multiplexer, at least one electrical transmitter from the second plurality of electrical transmitters being associated with a failure within the first optical transceiver; and sending, from the controller, a control signal to the VOA such that the VOA modulates with a signal representing control information for a second optical transceiver to be operatively coupled to the first optical transceiver, the control information being associated with the failure within the first optical transceiver.
A method for producing solar cell strings (11, 12) comprising the following steps: - connecting at least two solar cells (1, 1', 1") using at least one conductor strip of a first length, wherein the solar cells (1, 1', 1") are each spaced apart from one another at a string cell distance (s) until a desired number of solar cells (1, 1', 1") for producing a first solar cell string are connected to one another; - connecting an additional solar cell to a last solar cell (1") of the first solar cell string using at least one conductor band that is longer compared to the aforesaid conductor band with the first length, wherein the additional solar cell is spaced apart from the last solar cell (1") at a greater distance (t) than the string cell distance (s), and wherein the additional solar cell forms the first solar cell for a second solar cell string; - separating the longer conductor band for decoupling the first solar cell string. - connecting at least two solar cells (1, 1', 1") using at least one conductor strip of a first length, wherein the solar cells (1, 1', 1") are each spaced apart from one another at a string cell distance (s) until a desired number of solar cells (1, 1', 1") for producing a first solar cell string are connected to one another; - connecting an additional solar cell to a last solar cell (1") of the first solar cell string using at least one conductor band that is longer compared to the aforesaid conductor band with the first length, wherein the additional solar cell is spaced apart from the last solar cell (1") at a greater distance (t) than the string cell distance (s), and wherein the additional solar cell forms the first solar cell for a second solar cell string; - separating the longer conductor band for decoupling the first solar cell string.
A display device comprising: a first display area and a second display area adjacent to the first display area in a first direction; driving elements; light-emitting elements including a pixel electrode electrically connected to a corresponding one of the driving elements; signal wirings that transfer a driving signal to the driving elements; and connection wirings that transfer driving signals to signal wirings disposed in the second display area, at least one of the connection wirings including a signal-transferring portion and a dummy portion, the signal-transferring portion and the dummy portion extending in different directions to form a matrix having a disconnection portion, characterized in that the pixel electrode overlaps the disconnection portion in an area where the connection wirings are disposed. a first display area and a second display area adjacent to the first display area in a first direction; driving elements; light-emitting elements including a pixel electrode electrically connected to a corresponding one of the driving elements; signal wirings that transfer a driving signal to the driving elements; and connection wirings that transfer driving signals to signal wirings disposed in the second display area, at least one of the connection wirings including a signal-transferring portion and a dummy portion, the signal-transferring portion and the dummy portion extending in different directions to form a matrix having a disconnection portion, characterized in that the pixel electrode overlaps the disconnection portion in an area where the connection wirings are disposed.
A cutting element (1, 21, 31, 41, 51) for an ultrasonically-vibratable surgical tool, comprising elongate waveguide means mountable adjacent its proximal end to a source of ultrasonic vibrations and having elongate blade means (3, 23, 33, 43, 53) extending from adjacent its distal end, wherein a longitudinal axis of the waveguide means and a longitudinal axis of the blade means (3, 23, 33, 43, 53) intersect at an acute non-zero angle, characterised in that the blade means (33, 43, 53) is provided on a face thereof adjacent its distal tip with spacing means ( 47, 59) adapted to contact a substrate surface to prevent direct contact between said face of the blade means (33, 43, 43) and the substrate surface.
A variant filamentous fungal cell derived from a parental cell comprising a gene encoding a GEF1 protein, wherein the encoded GEF1 protein comprises at least 70% sequence identity to SEQ ID NO: 2, wherein the variant cell comprises a genetic modification which disrupts or deletes the gene encoding the GEF1 protein, wherein the variant cell comprises an enhanced protein productivity phenotype relative to the parental cell when fermented under the same conditions.
An occlusion device comprising: (a) a substantially solid marker band having an inner and outer diameter, a proximal end, and a distal end; and (b) a resilient mesh body attached within the marker band, wherein the body has a length y, wherein the body extends distally from the marker band and wherein the body has a first delivery shape and a second expandable deployed shape which is in the shape of an inverted mushroom; characterised in that the device comprises a mass of additional resilient mesh material of a length x arranged within said body, wherein y is greater than x.
A refrigeration cycle apparatus comprising: at least one heat source unit having mounted therein at least an air conditioning compressor and a heat-source-side heat exchanger; a plurality of use-side units (B, C, D) each having mounted therein at least a use-side heat exchanger, the use-side units being automatically operable; and at least one relay unit that is disposed between the heat source unit and the use-side units and that transfers heating energy or cooling energy generated by the heat source side unit to the use-side units, wherein the heat source unit is provided with a heat source unit controller that controls operation of the plurality of use-side units, characterized in that in the case that at least one of the plurality of use-side units is stopped or is under automatic operation among the plurality of automatically operable use-side units (B, C, D), by using the at least one of the plurality of use-side units that is stopped or is under automatic operation among the plurality of automatically operable use-side units (B, C, D), the plurality of use-side units are operated so that a thermal cooling load and a thermal heating load to be executed by the plurality of use-side units are balanced, and in that when a total load on a use-side unit that is executing a thermal cooling load operation is larger than a total load on a use-side unit that is executing a thermal heating load operation, a use-side unit that is stopped or is under automatic operation among the plurality of use-side units (B, C, D) is made to execute the thermal heating load operation. at least one heat source unit having mounted therein at least an air conditioning compressor and a heat-source-side heat exchanger; a plurality of use-side units (B, C, D) each having mounted therein at least a use-side heat exchanger, the use-side units being automatically operable; and at least one relay unit that is disposed between the heat source unit and the use-side units and that transfers heating energy or cooling energy generated by the heat source side unit to the use-side units, wherein the heat source unit is provided with a heat source unit controller that controls operation of the plurality of use-side units, characterized in that in the case that at least one of the plurality of use-side units is stopped or is under automatic operation among the plurality of automatically operable use-side units (B, C, D), by using the at least one of the plurality of use-side units that is stopped or is under automatic operation among the plurality of automatically operable use-side units (B, C, D), the plurality of use-side units are operated so that a thermal cooling load and a thermal heating load to be executed by the plurality of use-side units are balanced, and in that when a total load on a use-side unit that is executing a thermal cooling load operation is larger than a total load on a use-side unit that is executing a thermal heating load operation, a use-side unit that is stopped or is under automatic operation among the plurality of use-side units (B, C, D) is made to execute the thermal heating load operation.
Coupling structure for crossing three transmission lines (11; 12; 13) for millimetre-wave or centimetre-wave signals (S1; S2; S3) in a signal conductor layer of a circuit substrate, wherein the coupling structure comprises three planar cross-couplers (30; 40; 50), which each have two first input/output points (31; 32; 41; 42; 51; 52) and two second input/output points (33; 34; 43; 44; 53; 54) of the relevant cross-coupler (30; 40; 50), and wherein, of each of the three cross-couplers (30; 40; 50), two input/output points (33; 34; 41; 43; 44; 53; 54) of the cross-coupler (30; 40; 50) following one another in the plane of the cross-coupler (30; 40; 50) are connected to a respective input/output point (33; 34; 41; 43; 44; 53; 54) of a respective other of the three cross-couplers (30; 40; 50), and wherein, of each of the three cross-couplers (30; 40; 50), the respective other two input/output points (31; 32; 41; 42; 43; 51; 52) form input/output points (21; 22; 23; 24; 25; 26) of the coupling structure, and wherein, on a first side of the coupling structure, three transmission lines (11; 12; 13) are connected to respectively one of the input/output points (21; 22; 23) of the coupling structure, and wherein, on another side of the coupling structure, continuations of the three transmission lines (13'; 12'; 11') are connected in the reverse order to respectively one of the input/output points (26; 25; 24) of the coupling structure. wherein the coupling structure comprises three planar cross-couplers (30; 40; 50), which each have two first input/output points (31; 32; 41; 42; 51; 52) and two second input/output points (33; 34; 43; 44; 53; 54) of the relevant cross-coupler (30; 40; 50), and wherein, of each of the three cross-couplers (30; 40; 50), two input/output points (33; 34; 41; 43; 44; 53; 54) of the cross-coupler (30; 40; 50) following one another in the plane of the cross-coupler (30; 40; 50) are connected to a respective input/output point (33; 34; 41; 43; 44; 53; 54) of a respective other of the three cross-couplers (30; 40; 50), and wherein, of each of the three cross-couplers (30; 40; 50), the respective other two input/output points (31; 32; 41; 42; 43; 51; 52) form input/output points (21; 22; 23; 24; 25; 26) of the coupling structure, and wherein, on a first side of the coupling structure, three transmission lines (11; 12; 13) are connected to respectively one of the input/output points (21; 22; 23) of the coupling structure, and wherein, on another side of the coupling structure, continuations of the three transmission lines (13'; 12'; 11') are connected in the reverse order to respectively one of the input/output points (26; 25; 24) of the coupling structure.