mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a molded body by laminating and cold-pressing a molding material X and a molding material Y, wherein: the molding material X contains discontinuous carbon fibers Cx, discontinuous glass fibers Gx, and a matrix resin Rx, the carbon fibers Cx containing carbon fibers Cx1 having a fiber width of less than 0.3 mm and carbon fibers Cx2 having a fiber width of 0.3 mm or more and 3.0 mm or less; a volume ratio of the carbon fibers Cx2 to the carbon fibers Cx is 10 Vol% or more and less than 99 Vol%; a volume ratio of the carbon fibers Cx / the glass fibers Gx is 0.1 or more and 1.5 or less; an average molding shrinkage X in an in-plane direction of the molding material X satisfies the following formula; the molding material Y contains discontinuous carbon fibers Cy and/or glass fibers Gy, and a matrix resin Ry; and an average molding shrinkage Y of the molding material Y in an in-plane direction satisfies the following formula: Average molding shrinkage X ≤ 0.12 % 0.1 < average molding shrinkage Y / average molding shrinkage X < 1.5. the molding material X contains discontinuous carbon fibers Cx, discontinuous glass fibers Gx, and a matrix resin Rx, the carbon fibers Cx containing carbon fibers Cx1 having a fiber width of less than 0.3 mm and carbon fibers Cx2 having a fiber width of 0.3 mm or more and 3.0 mm or less; a volume ratio of the carbon fibers Cx2 to the carbon fibers Cx is 10 Vol% or more and less than 99 Vol%; a volume ratio of the carbon fibers Cx / the glass fibers Gx is 0.1 or more and 1.5 or less; an average molding shrinkage X in an in-plane direction of the molding material X satisfies the following formula; the molding material Y contains discontinuous carbon fibers Cy and/or glass fibers Gy, and a matrix resin Ry; and an average molding shrinkage Y of the molding material Y in an in-plane direction satisfies the following formula: Average molding shrinkage X ≤ 0.12 % 0.1 < average molding shrinkage Y / average molding shrinkage X < 1.5.
A method of removing coating material from a coated particle for use in an electrophotographic device, the method comprising adding the coated particle to a cleaning solution to form a mixture and applying ultrasound to the mixture; wherein the cleaning solution comprises a polar solvent selected from water, dimethyl sulfoxide, dimethylformamide, acetonitrile, tetrahydrofuran, C 1 -C 8 alcohols, C 1 -C 6 esters of C 1 -C 8 mono-, di-, and tri-carboxylic acids, and mixtures thereof.
A vertical cavity light-emitting element comprising: a first multilayer film reflecting mirror; a light transmissive first electrode formed on the first multilayer film reflecting mirror; a first semiconductor layer formed on the first electrode and having a first conductivity type; a light-emitting layer formed on the first semiconductor layer; a second semiconductor layer formed on the light-emitting layer and having a second conductivity type opposite to the first conductivity type; a second multilayer film reflecting mirror formed on the second semiconductor layer and composed of a plurality of semiconductor layers having the second conductivity type, the second multilayer film reflecting mirror constituting a resonator together with the first multilayer film reflecting mirror; a semiconductor substrate formed on the second multilayer film reflecting mirror, having an upper surface and a projecting portion projecting from the upper surface, and having the second conductivity type; and a second electrode formed on the upper surface of the semiconductor substrate; characterized in that the projecting portion of the semiconductor substrate has a top surface that is mirror-finished by polishing; and the projecting portion of the semiconductor substrate has a damage layer formed along the top surface of the projecting portion, and the damage layer has the second conductivity type impaired by the polishing. a first multilayer film reflecting mirror; a light transmissive first electrode formed on the first multilayer film reflecting mirror; a first semiconductor layer formed on the first electrode and having a first conductivity type; a light-emitting layer formed on the first semiconductor layer; a second semiconductor layer formed on the light-emitting layer and having a second conductivity type opposite to the first conductivity type; a second multilayer film reflecting mirror formed on the second semiconductor layer and composed of a plurality of semiconductor layers having the second conductivity type, the second multilayer film reflecting mirror constituting a resonator together with the first multilayer film reflecting mirror; a semiconductor substrate formed on the second multilayer film reflecting mirror, having an upper surface and a projecting portion projecting from the upper surface, and having the second conductivity type; and a second electrode formed on the upper surface of the semiconductor substrate; characterized in that the projecting portion of the semiconductor substrate has a top surface that is mirror-finished by polishing; and the projecting portion of the semiconductor substrate has a damage layer formed along the top surface of the projecting portion, and the damage layer has the second conductivity type impaired by the polishing.
An apparatus, comprising: a backshell canister mated to an electrical connector; and an active electronic component housed in the canister; wherein the electrical connector is a rugged electrical connector supporting an external bus protocol including a power signal; wherein the apparatus comprises an electrical connection between the active electronic component and the rugged electrical connector; wherein the active electronic component is a wireless transceiver that operates within an infrared frequency band; and wherein the backshell canister either -A- is made entirely of germanium to thereby allow the passage of infrared energy into and out of the backshell canister, or -B- is constructed from a metal material and includes a Germanium window configured to allow the passage of infrared energy into and out of the backshell canister. a backshell canister mated to an electrical connector; and an active electronic component housed in the canister; wherein the electrical connector is a rugged electrical connector supporting an external bus protocol including a power signal; wherein the apparatus comprises an electrical connection between the active electronic component and the rugged electrical connector; wherein the active electronic component is a wireless transceiver that operates within an infrared frequency band; and wherein the backshell canister either -A- is made entirely of germanium to thereby allow the passage of infrared energy into and out of the backshell canister, or -B- is constructed from a metal material and includes a Germanium window configured to allow the passage of infrared energy into and out of the backshell canister.
An organic light-emitting device comprising a first electrode, a second electrode opposite the first electrode, and one or more organic material layers interposed between the first electrode and the second electrode, wherein at least one of the organic material layers comprises a nitrogen-containing heterocyclic compound represented by the following formula 1 or 2, and wherein the organic material layer comprising the nitrogen-containing heterocyclic compound is an electron-transporting layer: wherein in formulae 1 and 2, X is C; one or more of R1 to R5 are each independently represented by -L-A, wherein L is a phenylene group and A is selected from a pyridine group unsubstituted or substituted with an aryl group, a pyrimidine group unsubstituted or substituted with an aryl group, a pyridazine group unsubstituted or substituted with an aryl group, a pyrazine group unsubstituted or substituted with an aryl group, a triazine group unsubstituted or substituted with an aryl group, a tetrazine group unsubstituted or substituted with an aryl group, and a pentazine group; the remainder of R1 to R5 are hydrogen; a, b, d and e are each independently an integer ranging from 1 to 4; c is an integer ranging from 1 to 3; one of R6 to R10 is independently selected from a pyridine group unsubstituted or substituted with an aryl group, a pyrimidine group unsubstituted or substituted with an aryl group, a pyridazine group unsubstituted or substituted with an aryl group, a pyrazine group unsubstituted or substituted with an aryl group, a tetrazine group unsubstituted or substituted with an aryl group, and a pentazine group; the remainder of R6 to R10 are hydrogen; a', b', d' and e' are each independently an integer ranging from 1 to 4; and c' is an integer ranging from 1 to 3. X is C; one or more of R1 to R5 are each independently represented by -L-A, wherein L is a phenylene group and A is selected from a pyridine group unsubstituted or substituted with an aryl group, a pyrimidine group unsubstituted or substituted with an aryl group, a pyridazine group unsubstituted or substituted with an aryl group, a pyrazine group unsubstituted or substituted with an aryl group, a triazine group unsubstituted or substituted with an aryl group, a tetrazine group unsubstituted or substituted with an aryl group, and a pentazine group; the remainder of R1 to R5 are hydrogen; a, b, d and e are each independently an integer ranging from 1 to 4; c is an integer ranging from 1 to 3; one of R6 to R10 is independently selected from a pyridine group unsubstituted or substituted with an aryl group, a pyrimidine group unsubstituted or substituted with an aryl group, a pyridazine group unsubstituted or substituted with an aryl group, a pyrazine group unsubstituted or substituted with an aryl group, a tetrazine group unsubstituted or substituted with an aryl group, and a pentazine group; the remainder of R6 to R10 are hydrogen; a', b', d' and e' are each independently an integer ranging from 1 to 4; and c' is an integer ranging from 1 to 3.
A separator plate for an electrochemical system, comprising: at least one passage opening (10a-h) for forming a media channel for feeding or discharging media; at least one bead arrangement (14a-h) arranged around the at least one passage opening (10a-h), for the purpose of sealing said passage opening (10a-h), wherein at least one of the flanks (21, 22) of the bead arrangement (14a-h) comprises at least one opening (25, 26) for conducting a medium through the bead flank (21, 22); and at least one guide channel, which is connected, on an exterior of the bead arrangement (14a-h), to the opening (25, 26) in the bead flank (21, 22) and is fluidically connected to a bead interior via the opening (25, 26) in the bead flank (21, 22); characterised in that the guide channel is designed such that a guide channel height (32', 32") perpendicular to the flat surface plane of the separator plate increases in the direction of the bead arrangement (14a-h) at least in sections. at least one passage opening (10a-h) for forming a media channel for feeding or discharging media; at least one bead arrangement (14a-h) arranged around the at least one passage opening (10a-h), for the purpose of sealing said passage opening (10a-h), wherein at least one of the flanks (21, 22) of the bead arrangement (14a-h) comprises at least one opening (25, 26) for conducting a medium through the bead flank (21, 22); and at least one guide channel, which is connected, on an exterior of the bead arrangement (14a-h), to the opening (25, 26) in the bead flank (21, 22) and is fluidically connected to a bead interior via the opening (25, 26) in the bead flank (21, 22);
An abseiling device for braking a load (16, 34) guided on a rope, in which the rope passes through the abseiling device along a section in a frictionally guided manner, wherein at least one portion of the section is guided by a part that can be moved from an unloaded starting position relative to a housing of the abseiling device and that, when a load is suspended, generates a force that is dependent on the weight of the load, the abseiling device comprises a manually actuatable adjustment device via which the movable part can be moved into the starting position in which the movable part can apply no force or only a small force to the rope, and characterized in that the adjustment device comprises two symmetric adjustment elements, which are disposed, diametrically opposed, on the movable part, each of which is accessible through an opening in the housing or extends therethrough to the outside.
A larvae separating device (120, 220, 240) for separating live insects, in particular live insect larvae, or live worms from water, comprising a screening drum having a shell portion comprising meshes with a mesh width of from 1.0 mm to 2.5 mm, preferably from 1.3 mm to 2.0 mm, and having a transport screw within the screening drum for transporting the insects or the worms from an inlet end of the screening drum to an outlet end of the screening drum. a screening drum having a shell portion comprising meshes with a mesh width of from 1.0 mm to 2.5 mm, preferably from 1.3 mm to 2.0 mm, and having a transport screw within the screening drum for transporting the insects or the worms from an inlet end of the screening drum to an outlet end of the screening drum.
A configuration method of a control interface for controlling a system comprising one or more home automation equipment(s), the control interface comprising an information screen on which a time scale, representing a time period of defined duration, is able to be displayed, said method including steps of: (i): defining a plurality of associations, each association being defined between a control scenario of one or more home automation equipment(s) and a triggering instant (t) comprised in the time period at which the scenario is to be triggered by the control interface, (ii): carrying out a grouping at least a portion of the defined associations whose triggering instants (t) are comprised in a time interval (ΔT) of a defined duration within the time period, (iii): positioning a collective reference on the time scale corresponding to the grouping at the time interval. (i): defining a plurality of associations, each association being defined between a control scenario of one or more home automation equipment(s) and a triggering instant (t) comprised in the time period at which the scenario is to be triggered by the control interface, (ii): carrying out a grouping at least a portion of the defined associations whose triggering instants (t) are comprised in a time interval (ΔT) of a defined duration within the time period, (iii): positioning a collective reference on the time scale corresponding to the grouping at the time interval.
A device configured for releasing at least one substance from source material and for delivery of the at least one substance via inhalation, comprising: a frame defining a plurality of sections in which source material is contained (802, 1500, 1502, 1504, 1602, 1902, 2200, 2304,2502, 2600); a plurality of airflow paths (800, 804, 1506, 1508, 1510, 2204, 2504), each airflow path associated with at least one of said source materials sections; each airflow path associated with at least one blocking element (1518, 1604) which prevents flow of air through said airflow path; and an actuator operably coupled to said blocking element; wherein said plurality of airflow paths join together to form a single airflow path before reaching an output (808, 1512, 1606) of said device; and wherein said actuator is configured for unblocking said airflow path of at least one selected source material section to allow flow of air to and through source material within said section, said airflow path and said at least one selected source material section being sealed so that flow of air is directed only through said at least one selected source material section and said associated airflow path, wherein said source material comprises an air-permeable solid pallet. a frame defining a plurality of sections in which source material is contained (802, 1500, 1502, 1504, 1602, 1902, 2200, 2304,2502, 2600); a plurality of airflow paths (800, 804, 1506, 1508, 1510, 2204, 2504), each airflow path associated with at least one of said source materials sections; each airflow path associated with at least one blocking element (1518, 1604) which prevents flow of air through said airflow path; and an actuator operably coupled to said blocking element; wherein said plurality of airflow paths join together to form a single airflow path before reaching an output (808, 1512, 1606) of said device; and wherein said actuator is configured for unblocking said airflow path of at least one selected source material section to allow flow of air to and through source material within said section, said airflow path and said at least one selected source material section being sealed so that flow of air is directed only through said at least one selected source material section and said associated airflow path, wherein said source material comprises an air-permeable solid pallet.
Cleaning device for at least one dental instrument, comprising at least one storage container for a fluid or a liquid, in particular a cleaning, disinfection, or care medium, at least one cleaning chamber for arranging the dental instrument, and at least one media line (17a, 17b) connecting the storage container and the cleaning chamber, wherein a measuring device is provided for determining the amount and/or the filling level of the fluid or the liquid in the storage container, and the measuring device has at least one sensor the data of which can be read out, characterized in that the sensor is configured as pressure sensor.
A non-reciprocal circuit element in which a central conductor in the form of a flat plate in which respective resonators extending outward are formed between I/O terminals (2a, 2b, 2c) extending outward and radially from a central portion in three directions, upper and lower ferrite plates (5,6) between which the central conductor together with the resonators is sandwiched, and upper and lower magnetic metal plates (7,8) between which the upper and lower ferrite plates are sandwiched are stacked, a magnet is arranged on the upper magnetic metal plate, and the upper and lower magnetic metal plates form a closed magnetic circuit via a side plate, characterized in that bent portions which are bent in out-of-plane directions and form an interstice between the central conductor and the upper ferrite plate and/or the lower ferrite plate (5,6) are formed at respective distal end portions of the resonators of the central conductor such that the upper ferrite plate and/or the lower ferrite plate (5,6) is provided to be capable of coming into and out of contact with the central conductor due to elasticity of the bent portions.
A softened product comprising: an amine epoxide adduct compound according to the formula: wherein R is an alkyl group having a C 8 -C 30 or a -(CH 2) n O-alkyl, and wherein n is an integer of between 1-1000; and a textile or a paper. an amine epoxide adduct compound according to the formula: wherein R is an alkyl group having a C 8 -C 30 or a -(CH 2) n O-alkyl, and wherein n is an integer of between 1-1000; and a textile or a paper.
A receiver (120, 220, 713, 813), comprising: a first amplifier (406a, 506a, 606a) on an integrated circuit (104, 204, 404, 604); a second amplifier (406b, 506b, 606b) on the integrated circuit (104, 204, 404, 604); a first inductor (410a, 510a, 610a) coupled to the first amplifier (406a, 506a, 606a); a second inductor (410b, 510b, 610b) coupled to the second amplifier (406b, 506b, 606b); and a first capacitor (412, 512a, 612) coupled to the first inductor (410a, 510a, 610a), the second inductor (410b, 510b, 610b), and to ground, wherein the first capacitor (412, 512a, 612) is shared between a first matching network for the first amplifier (406a, 506a, 606a) and a second matching network for the second amplifier (406a, 506a, 606a), wherein each matching network provides impedance matching to match an output impedance of a signal source (428, 528, 628) for each amplifier, wherein the first inductor (410a, 510a, 610a) and the second inductor (410b, 510b, 610b) are shunt inductors. a first amplifier (406a, 506a, 606a) on an integrated circuit (104, 204, 404, 604); a second amplifier (406b, 506b, 606b) on the integrated circuit (104, 204, 404, 604); a first inductor (410a, 510a, 610a) coupled to the first amplifier (406a, 506a, 606a); a second inductor (410b, 510b, 610b) coupled to the second amplifier (406b, 506b, 606b); and a first capacitor (412, 512a, 612) coupled to the first inductor (410a, 510a, 610a), the second inductor (410b, 510b, 610b), and to ground, wherein the first capacitor (412, 512a, 612) is shared between a first matching network for the first amplifier (406a, 506a, 606a) and a second matching network for the second amplifier (406a, 506a, 606a), wherein each matching network provides impedance matching to match an output impedance of a signal source (428, 528, 628) for each amplifier, wherein the first inductor (410a, 510a, 610a) and the second inductor (410b, 510b, 610b) are shunt inductors.
Method for controlling a three-phase converter arrangement connected to a transmission grid, which converter arrangement comprises three phase legs (10, 20, 30) and an energy transfer circuit, each phase leg comprising a plurality of switching cells (11A-n, 21A-n, 31A-n) arranged in series, each switching cell (nA-n, 21A-n, 31A-n) comprises an energy storage element (12A-n, 22A-n, 32A-n) being selectively connectable to the respective phase leg (10, 20, 30), the energy transfer circuit comprising at least one energy storage element being selectively connectable to each one of the phase legs (10, 20, 30), the method comprises providing a varying respective output phase (A, B, C) voltage to the transmission grid by selecting energy storage elements (12A-n, 21A-n, 31A-n, 44) and connecting the selected energy storage elements (12A-n, 21A-n, 31A-n, 44) to the output (15, 25, 35) for a number of successive control periods on the basis of a voltage reference signal, wherein the selecting being performed for each control period to provide an adjustment of the output phase (A, B, C) voltages for each control period, and the selecting for each phase (A, B, C) voltage being made among the energy storage elements (12A-n, 21A-n, 31A-n) of the corresponding phase leg (10, 20, 30) and the at least one energy storage element of the energy transfer circuit, the method being characterised in further comprising selecting energy storage elements (12A-n, 21A-n, 31A-n, 44) for performing a transfer of energy in each phase leg (10, 20, 30) between the energy storage elements (12A-n, 21A-n, 31A-n, 44) during the control period, the selection for performing the energy transfer being made for each phase leg (10, 20, 30) among the energy storage elements (12A-n, 21A-n, 31An, 44) of that phase leg (10, 20, 30) and of the energy transfer circuit, and connecting the energy storage elements (12A-n, 21A-n, 31A-n, 44) selected for providing an adjustment of the phase voltages, and the energy storage elements (12A-n, 21A-n, 31A-n, 44) selected for performing a transfer of energy, to the output (15, 25, 35).