mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a first support member having an opening; a second support member disposed in the opening of the first support member; an adhesive member disposed between the first and second support members (110,131); a first lead electrode disposed on the second support member; a second lead electrode disposed on the second support member; a light emitting chip disposed on the first lead electrode, the light emitting chip being electrically connected to the second lead electrode; and a conductive layer disposed under the second support member, wherein the first support member comprises a resin material, the second support member comprises a ceramic material, the first lead electrode is disposed between the light emitting chip and the second support member, wherein a portion of the first lead electrode extends on a second region of the first support member, wherein the first lead electrode is vertically overlapped with the second support member, the adhesive member and the second region of the first support member, wherein a portion of the second lead electrode is disposed on a first region of the first support member, wherein the second lead electrode is disposed on the second support member, the adhesive member and the first region of the first support member, and wherein the first and second regions of the first support member are different regions from each other. a first support member having an opening; a second support member disposed in the opening of the first support member; an adhesive member disposed between the first and second support members (110,131); a first lead electrode disposed on the second support member; a second lead electrode disposed on the second support member; a light emitting chip disposed on the first lead electrode, the light emitting chip being electrically connected to the second lead electrode; and a conductive layer disposed under the second support member, wherein the first support member comprises a resin material, the second support member comprises a ceramic material, the first lead electrode is disposed between the light emitting chip and the second support member, wherein a portion of the first lead electrode extends on a second region of the first support member, wherein the first lead electrode is vertically overlapped with the second support member, the adhesive member and the second region of the first support member, wherein a portion of the second lead electrode is disposed on a first region of the first support member, wherein the second lead electrode is disposed on the second support member, the adhesive member and the first region of the first support member, and wherein the first and second regions of the first support member are different regions from each other.
Method for controlling the magnetic clamping of a part in a magnetic clamping device of an industrial installation comprising, a unit for controlling the magnetic clamping, a clamping plate whereon is positioned the part to be clamped, several magnetic studs housed in this plate, with the studs being connected to magnetic flux measuring circuits (51 a, 51b, 51c, 51d) defining measuring zones (A, B, C, D) and to power circuits making it possible to magnetise or demagnetise the studs, characterised in that the method comprises prior steps consisting in: - a) determining at least two treatment zones (Za, Zb, Zc, Zd) each defined by at least one measuring zone (A, B, C, D) - b) defining a surface of the clamping plate in contact with the part to be clamped and in that the method comprises for each treatment zone (Za, Zb, Zc, Zd), steps consisting in: - c) identifying one or more magnetic studs (5a, 5b, 5c, 5d) included in the surface of the clamping plate in contact with the part to be clamped, - d) measuring the magnetic flux produced by the stud or studs (5a, 5b, 5c, 5d) identified in step c) - e) calculating an actual magnetic clamping force (Ea, Eb, Ec, Ed) based on the measurement of the step d), on the definition of the surface in contact carried out in the step b) and on the identification of the studs (5a, 5b, 5c, 5d) carried out in the step c), - f) calculating a theoretical magnetic force (E'a, E'b, E'c, E'd) thanks to the definition of the surface in contact carried out in the step b) and the identification of the studs (5a, 5b, 5c, 5d) carried out in the step c). - a) determining at least two treatment zones (Za, Zb, Zc, Zd) each defined by at least one measuring zone (A, B, C, D) - b) defining a surface of the clamping plate in contact with the part to be clamped and - c) identifying one or more magnetic studs (5a, 5b, 5c, 5d) included in the surface of the clamping plate in contact with the part to be clamped, - d) measuring the magnetic flux produced by the stud or studs (5a, 5b, 5c, 5d) identified in step c) - e) calculating an actual magnetic clamping force (Ea, Eb, Ec, Ed) based on the measurement of the step d), on the definition of the surface in contact carried out in the step b) and on the identification of the studs (5a, 5b, 5c, 5d) carried out in the step c), - f) calculating a theoretical magnetic force (E'a, E'b, E'c, E'd) thanks to the definition of the surface in contact carried out in the step b) and the identification of the studs (5a, 5b, 5c, 5d) carried out in the step c).
Method for operating an operating table, which comprises several components (32 to 46) that are adjustable with the aid of operation elements (14 to 28), wherein by actuating at least one first operation element (14 to 24), a first action of at least one first drive unit is carried out to adjust at least one first component (32 to 46), wherein by actuating a second operation element the first action carried out by actuating the first operation element (14 to 24) is automatically completely reversed by a second action, wherein the first drive unit and/or the first component (32 to 46) automatically completely carries out a reverse motion sequence compared to carrying out the first action, wherein by actuating a third operation element (14 to 24) at least one third action of at least one second drive unit is carried out for adjusting the first component (32 to 46) and/or at least one second component (32 to 46), characterised in that the first operation element (14 to 24) is actuated, by which the first action is carried out, the third operation element (14 to 24) is actuated after the actuation of the first operation element (14 to 24), by which the third action is carried out after the first action, when actuating the second operation element once, the third action is automatically completely reversed, and when actuating the second operation element again, the first action is automatically completely reversed.
A device comprising: - an orthodontic working wire arch, designed to move at least one tooth to be treated in a dental arch of a patient from a first spatial configuration toward a second spatial configuration, - an element (40, 41, 41', 41", 51, 42) for connecting to the tooth to be treated, designed to be attached onto the tooth to be treated, said device being characterized in that: - the working wire arch is rigid, and - the connecting element is movable with respect to the rigid working wire arch and connected to the rigid working wire arch by elastically deformable connecting means (43, 43a, 43b, 43c), the stiffness of the orthodontic working wire arch being adapted such that, once in place on the dental arch to be treated, the working wire arch retains its shape in reaction to the force exerted on the teeth to be treated, while the elastically deformable connecting means make it possible to generate forces transmitted to the tooth to be treated in order to achieve the desired displacement between the first spatial configuration of this tooth and the second desired spatial configuration of this same tooth, wherein the connecting element includes: - a connector (40, 41, 41', 41", 51) designed to be attached onto the tooth to be treated, - a connecting base connected to the orthodontic working wire arch by the elastically deformable connecting means, characterized in that the connecting base includes a recess designed to receive the connector by snap action or by a vertical forked tenon. - an orthodontic working wire arch, designed to move at least one tooth to be treated in a dental arch of a patient from a first spatial configuration toward a second spatial configuration, - an element (40, 41, 41', 41", 51, 42) for connecting to the tooth to be treated, designed to be attached onto the tooth to be treated, - the working wire arch is rigid, and - the connecting element is movable with respect to the rigid working wire arch and connected to the rigid working wire arch by elastically deformable connecting means (43, 43a, 43b, 43c), - a connector (40, 41, 41', 41", 51) designed to be attached onto the tooth to be treated, - a connecting base connected to the orthodontic working wire arch by the elastically deformable connecting means, characterized in that the connecting base includes a recess designed to receive the connector by snap action or by a vertical forked tenon.
An exercise system that simulates outdoor terrain, the exercise system comprising: a treadmill that substantially simulates outdoor terrain in response to one or more control signals, wherein the treadmill comprises: a base frame; a treadbase having a first end, a second end, a first side, and a second side, the treadbase being selectively rotatable about a first rotation axis and about a second rotation axis; a ball joint connection assembly pivotally connecting the treadbase to the base frame, wherein the ball joint connection assembly enables the treadbase to rotate about the first rotation axis and the second rotation axis; a first lift mechanism pivotally connected between the base frame and the treadbase, wherein, in response to one or more control signals, the first lift mechanism selectively rotates the treadbase about the first rotation axis; and a second lift mechanism pivotally connected between the base frame and the treadbase, wherein, in response to one or more control signals, the second lift mechanism selectively rotates the treadbase about the second rotation axis. a treadmill that substantially simulates outdoor terrain in response to one or more control signals, wherein the treadmill comprises: a base frame; a treadbase having a first end, a second end, a first side, and a second side, the treadbase being selectively rotatable about a first rotation axis and about a second rotation axis; a ball joint connection assembly pivotally connecting the treadbase to the base frame, wherein the ball joint connection assembly enables the treadbase to rotate about the first rotation axis and the second rotation axis; a first lift mechanism pivotally connected between the base frame and the treadbase, wherein, in response to one or more control signals, the first lift mechanism selectively rotates the treadbase about the first rotation axis; and a second lift mechanism pivotally connected between the base frame and the treadbase, wherein, in response to one or more control signals, the second lift mechanism selectively rotates the treadbase about the second rotation axis. a base frame; a treadbase having a first end, a second end, a first side, and a second side, the treadbase being selectively rotatable about a first rotation axis and about a second rotation axis; a ball joint connection assembly pivotally connecting the treadbase to the base frame, wherein the ball joint connection assembly enables the treadbase to rotate about the first rotation axis and the second rotation axis; a first lift mechanism pivotally connected between the base frame and the treadbase, wherein, in response to one or more control signals, the first lift mechanism selectively rotates the treadbase about the first rotation axis; and a second lift mechanism pivotally connected between the base frame and the treadbase, wherein, in response to one or more control signals, the second lift mechanism selectively rotates the treadbase about the second rotation axis.
A method of forming graphite oxide comprising the steps of: a) providing intercalated flakes of graphite as starting material; b) adding nitric acid to the intercalated graphite flakes in a reaction vessel at a temperature around 0°C; c) adding an oxidant to the mixture, said oxidant being a chlorate salt, while stirring and controlling the formation of ClO 2 such that it does not exceed 10% v/v; d) increasing the reaction temperature to room temperature over 12 hours to allow the formation of graphite oxide; e) washing and separating the graphite oxide from the reaction mixture to give an isolated graphite oxide; wherein steps b) to d) are conducted under an air purge, while stirring, and wherein it further comprises the following sub-steps after step d) and before step e): d2) warming the reaction mixture up to 60°C in 1 hour or more and stabilizing the temperature for 30 minutes; d3) cooling reaction mixture to a temperature of 0°C and adding ice. a) providing intercalated flakes of graphite as starting material; b) adding nitric acid to the intercalated graphite flakes in a reaction vessel at a temperature around 0°C; c) adding an oxidant to the mixture, said oxidant being a chlorate salt, while stirring and controlling the formation of ClO 2 such that it does not exceed 10% v/v; d) increasing the reaction temperature to room temperature over 12 hours to allow the formation of graphite oxide; e) washing and separating the graphite oxide from the reaction mixture to give an isolated graphite oxide; d2) warming the reaction mixture up to 60°C in 1 hour or more and stabilizing the temperature for 30 minutes; d3) cooling reaction mixture to a temperature of 0°C and adding ice.
A method of delensing a polymerized contact lens product from a contact lens mold member, comprising: compressing a portion of a contact lens mold member having a polymerized contact lens product in contact therewith; and directing a gas toward the polymerized contact lens product to facilitate separation of the polymerized contact lens product from the portion of the contact lens mold member; wherein the directing step begins before the compressing step or the directing step occurs simultaneously with the directing step. compressing a portion of a contact lens mold member having a polymerized contact lens product in contact therewith; and directing a gas toward the polymerized contact lens product to facilitate separation of the polymerized contact lens product from the portion of the contact lens mold member; wherein the directing step begins before the compressing step or the directing step occurs simultaneously with the directing step.
A physiologic monitoring system including a physiologic monitoring application-specific integrated circuit, the integrated circuit comprising: integrated amplification and filtering circuitry adapted to amplify and to filter a set of electrical signals received from a first set of physiologic sensors to generate a first set of filtered electrical signals, the amplification and filtering circuitry comprising analog filtering circuitry adapted to filter the set of electrical signals received from the first set of physiologic sensors; an integrated real-time clock adapted to generate a set of real-time indicators, wherein the real-time clock includes divider components configured to digitally divide a base timing signal to produce a real-time clock tick signal with a frequency of 1 Hz, wherein the real-time clock tick signal is input to one or more digital counters to generate a real-time digital time stamp; and integrated digital control logic connected to the real-time clock and the amplification and filtering circuitry; the digital control logic being configured to receive a first set of digital physiologic data derived from the first set of filtered electrical signals, receive a second set of digital physiologic data, wherein the second set of physiologic data includes physiologic data sampled with a different sampling rate than the first set of digital physiologic data, generate a time-stamped physiologic data packet from the real-time digital time stamp, the first set of digital physiologic data and the second set of digital physiologic data, and transmit the physiologic data packet for storage in a digital memory (32, 32'). integrated amplification and filtering circuitry adapted to amplify and to filter a set of electrical signals received from a first set of physiologic sensors to generate a first set of filtered electrical signals, the amplification and filtering circuitry comprising analog filtering circuitry adapted to filter the set of electrical signals received from the first set of physiologic sensors; an integrated real-time clock adapted to generate a set of real-time indicators, wherein the real-time clock includes divider components configured to digitally divide a base timing signal to produce a real-time clock tick signal with a frequency of 1 Hz, wherein the real-time clock tick signal is input to one or more digital counters to generate a real-time digital time stamp; and integrated digital control logic connected to the real-time clock and the amplification and filtering circuitry; the digital control logic being configured to receive a first set of digital physiologic data derived from the first set of filtered electrical signals, receive a second set of digital physiologic data, wherein the second set of physiologic data includes physiologic data sampled with a different sampling rate than the first set of digital physiologic data, generate a time-stamped physiologic data packet from the real-time digital time stamp, the first set of digital physiologic data and the second set of digital physiologic data, and transmit the physiologic data packet for storage in a digital memory (32, 32').
A peristaltic pump comprising: a housing having a hub; a rotor disposed within the housing and rotatably supported by the hub, the rotor comprising a drive shaft which extends through the hub, the drive shaft configured to engage with an output shaft of a drive unit to form a drive connection; wherein a first misalignment pivot is formed between the rotor and the hub and a second misalignment pivot is formed between the drive shaft and the output shaft of the drive unit; wherein a bearing is disposed between the rotor and the hub at a single axial position to rotatably support the rotor, the bearing forming the first misalignment pivot; wherein the drive shaft comprises a female receiving portion for receiving the output shaft of the drive unit, the second misalignment pivot being formed by the female receiving portion; and characterized by further comprising a sleeve which is configured to receive and engage with the output shaft of the drive unit, the sleeve engaging with the female receiving portion to form the drive connection. a housing having a hub; a rotor disposed within the housing and rotatably supported by the hub, the rotor comprising a drive shaft which extends through the hub, the drive shaft configured to engage with an output shaft of a drive unit to form a drive connection; wherein a first misalignment pivot is formed between the rotor and the hub and a second misalignment pivot is formed between the drive shaft and the output shaft of the drive unit; wherein a bearing is disposed between the rotor and the hub at a single axial position to rotatably support the rotor, the bearing forming the first misalignment pivot; wherein the drive shaft comprises a female receiving portion for receiving the output shaft of the drive unit, the second misalignment pivot being formed by the female receiving portion; and characterized by further comprising a sleeve which is configured to receive and engage with the output shaft of the drive unit, the sleeve engaging with the female receiving portion to form the drive connection.
A heat exchanger comprising: a heat exchange part in which a heating medium channel, through which a heating medium flows, and a combustion gas channel, through which a combustion gas combusted in a burner flows, are alternately formed adjacent to each other in a space between a plurality of stacked plates (100a-1,100b-1,100a-2,100b-2,100a-3,100b-3,100a-4,100b-4,100a-5,100b-5,100a-6,100b-6,100a-7,100b-7,100a-8,100b-8,100a-9,100b-9,100a-10,100b-10,100a-11,100b-11,100a-12,100b-12), wherein edges of a pair of plates (100a-1 and 100b-1, 100a-2 and 100b-2, 100a-3 and 100b-3, 100a-4 and 100b-4, 100a-5 and 100b-5, 100a-6 and 100b-6, 100a-7 and 100b-7, 100a-8 and 100b-8, 100a-9 and 100b-9, 100a-10 and 100b-10, 100a-11 and 100b-11, 100a-12 and 100b-12) forming the heating medium channel are weld-coupled to form a first welding portion, and edges of a pair of plates (100b-1 and 100a-2, 100b-2 and 100a-3, 100b-3 and 100a-4, 100b-4 and 100a-5, 100b-5 and 100a-6, 100b-6 and 100a-7, 100b-7 and 100a-8, 100b-8 and 100a-9, 100b-9 and 100a-10, 100b-10 and 100a-11, 100b-11 and 100a-12) forming the combustion gas channel are weld-coupled to form a second welding portion, characterized in that a guide part (132,162) is formed to guide a molten solution of a welding material of the first welding portion to be movable to the second welding portion. a heat exchange part in which a heating medium channel, through which a heating medium flows, and a combustion gas channel, through which a combustion gas combusted in a burner flows, are alternately formed adjacent to each other in a space between a plurality of stacked plates (100a-1,100b-1,100a-2,100b-2,100a-3,100b-3,100a-4,100b-4,100a-5,100b-5,100a-6,100b-6,100a-7,100b-7,100a-8,100b-8,100a-9,100b-9,100a-10,100b-10,100a-11,100b-11,100a-12,100b-12), wherein edges of a pair of plates (100a-1 and 100b-1, 100a-2 and 100b-2, 100a-3 and 100b-3, 100a-4 and 100b-4, 100a-5 and 100b-5, 100a-6 and 100b-6, 100a-7 and 100b-7, 100a-8 and 100b-8, 100a-9 and 100b-9, 100a-10 and 100b-10, 100a-11 and 100b-11, 100a-12 and 100b-12) forming the heating medium channel are weld-coupled to form a first welding portion, and edges of a pair of plates (100b-1 and 100a-2, 100b-2 and 100a-3, 100b-3 and 100a-4, 100b-4 and 100a-5, 100b-5 and 100a-6, 100b-6 and 100a-7, 100b-7 and 100a-8, 100b-8 and 100a-9, 100b-9 and 100a-10, 100b-10 and 100a-11, 100b-11 and 100a-12) forming the combustion gas channel are weld-coupled to form a second welding portion, characterized in that a guide part (132,162) is formed to guide a molten solution of a welding material of the first welding portion to be movable to the second welding portion.