mhurhangee/ep-ind-claims huggingface dataset:
A sensor comprising: a single silicon substrate (102; 202; 302; 402) having a first (202a; 302a; 402a) and a second surface (202b; 302b; 402b); integrated circuitry (104; 206; 306; 406) on the first surface (202a; 302a; 402a) of the silicon substrate (102; 202; 302; 402); a sensor structure (106; 205; 305; 405) on the second surface (202b; 302b; 402b) of the silicon substrate (102; 202; 302; 402) wherein the sensor structure (106; 205; 305; 405) and the integrated circuitry (104; 206; 306; 406) are electrically coupled to each other, characterized in that the sensor further comprising one or more vias (108; 204; 304; 404) extending between the first (202a; 302a; 402a) and second surfaces (202b; 302b; 402b) of the silicon substrate (102; 202; 302; 402) and between the sensor structure (106; 205; 305; 405) and the integrated circuitry (104; 206; 306; 406), and wherein the one or more vias (108; 204; 304; 404) are electrically coupled to the integrated circuitry (104; 206; 306; 406) and to the sensor structure (106; 205; 305; 405). a single silicon substrate (102; 202; 302; 402) having a first (202a; 302a; 402a) and a second surface (202b; 302b; 402b); integrated circuitry (104; 206; 306; 406) on the first surface (202a; 302a; 402a) of the silicon substrate (102; 202; 302; 402); a sensor structure (106; 205; 305; 405) on the second surface (202b; 302b; 402b) of the silicon substrate (102; 202; 302; 402) wherein the sensor structure (106; 205; 305; 405) and the integrated circuitry (104; 206; 306; 406) are electrically coupled to each other, characterized in that the sensor further comprising one or more vias (108; 204; 304; 404) extending between the first (202a; 302a; 402a) and second surfaces (202b; 302b; 402b) of the silicon substrate (102; 202; 302; 402) and between the sensor structure (106; 205; 305; 405) and the integrated circuitry (104; 206; 306; 406), and wherein the one or more vias (108; 204; 304; 404) are electrically coupled to the integrated circuitry (104; 206; 306; 406) and to the sensor structure (106; 205; 305; 405).
A computer-implemented method comprising: joining a congress by transferring, by a node operating in a proof-of-work blockchain network, one or more digital assets on the proof-of-work blockchain to an address associated with a congress pool having one or more other digital assets associated with other members of the congress; detecting, by the node, a special transaction of digital assets on the proof-of-work blockchain network to the address associated with the congress pool, the special transaction satisfying determined criteria which distinguishes the transaction from a transaction that is used to join the congress; and minting, by the node, one or more digital assets on a proof-of-stake blockchain network in response to detecting the special transaction, wherein joining further includes generating a private key share to be used in a threshold signature scheme in which at least a threshold of private key shares must be used to cooperatively generate a valid signature for a transaction from the address associated with the congress pool on behalf of the congress, and wherein other holders of the private key shares are the other members of the congress who have joined the congress on a non-permissioned basis by transfer of respective digital assets to the address associated with the congress pool, wherein generating the private key share and using the private key share is performed on a trusted execution environment within the node. joining a congress by transferring, by a node operating in a proof-of-work blockchain network, one or more digital assets on the proof-of-work blockchain to an address associated with a congress pool having one or more other digital assets associated with other members of the congress; detecting, by the node, a special transaction of digital assets on the proof-of-work blockchain network to the address associated with the congress pool, the special transaction satisfying determined criteria which distinguishes the transaction from a transaction that is used to join the congress; and
A hair treatment composition comprising components to, wherein the mass ratio / between the content of the component and the content of the component is from 0.05 to 2.0, and the pH value of the hair treatment composition is from 2.5 to 5.0;: polyglycerin, in which with regard to the ratio among a total content (p) of triglycerin and tetraglycerin, a content (q) of diglycerin, and a total content (r) of pentaglycerin and higher order oligomers in the entire polyglycerin, q/p is less than 0.5 and r/p is less than 0.5;: alkyl glyceryl ester or alkyl glyceryl ether having an HLB of 2 to 7;: aromatic alcohol; and: cationic surfactant.: polyglycerin, in which with regard to the ratio among a total content (p) of triglycerin and tetraglycerin, a content (q) of diglycerin, and a total content (r) of pentaglycerin and higher order oligomers in the entire polyglycerin, q/p is less than 0.5 and r/p is less than 0.5;: alkyl glyceryl ester or alkyl glyceryl ether having an HLB of 2 to 7;: aromatic alcohol; and: cationic surfactant.
Busbar assembly comprising precisely one first, one second and one third busbar (11,12,13), wherein the busbars (11,12,13) are at least partly arranged parallel to one another, wherein the first busbar and the second busbar are offset relative to each other such that at least one first straight line which does not pass through the second busbar can be formed perpendicularly to a longer extension of the cross-section of the first busbar, wherein the first busbar and the third busbar are offset relative to each other such that at least one second straight line which does not pass through the third busbar can be formed perpendicularly to the longer extension of the cross-section of the first busbar, wherein the second busbar and the third busbar are not offset relative to each other such that all third straight lines which can be formed perpendicularly to the longer extension of the cross-section of the second busbar pass through the third busbar, wherein with respect to the busbars (11,12,13), the busbar assembly is at least partly mirror symmetrical to a plane which runs through the interior of the first busbar and parallel to a longer extension of the cross-section of the first busbar, characterised in that the first busbar and the second busbar, as well as the first busbar and the third busbar, are mechanically connected together by a support which has the form of a cuboid in each case, wherein the support is electrically insulating in design.
A secondary battery having a structure in which an electrode assembly including a positive electrode, a negative electrode, and a separator (110, 210, 410, 510) interposed between the positive electrode and the negative electrode is housed in a battery case (140, 150), wherein the separator (110, 210, 410, 510) includes: a perforated line (111, 211, 311, 411, 511) formed in all or part of the separator (110, 210, 410, 510); and a magnetic body (112, 212, 312, 412, 512) formed in an area adjacent to the perforated line (111, 211, 311, 411, 511) that does not overlap, and arranged continuously or discontinuously at a position spaced apart from each other along the perforated line. a perforated line (111, 211, 311, 411, 511) formed in all or part of the separator (110, 210, 410, 510); and a magnetic body (112, 212, 312, 412, 512) formed in an area adjacent to the perforated line (111, 211, 311, 411, 511) that does not overlap, and arranged continuously or discontinuously at a position spaced apart from each other along the perforated line.
A compressor having a sealed container forming an exterior thereof, the compressor comprising: a suction pipe connected to a side surface portion of the sealed container to allow refrigerant flowing a suction side of the compressor to pass through the suction pipe; a liquid surface sensor configured to detect a liquid surface level inside the sealed container; a heating unit provided inside the sealed container; and a control unit configured to drive the heating unit, when the liquid surface level obtained by the liquid surface sensor is equal to or higher than a reference level, characterized in that the control unit is configured to drive the heating unit, when the liquid surface level obtained by the liquid surface sensor is equal to or higher than the reference level after start-up of the compressor, and further comprising an oil drain unit configured to drain oil stored in the sealed container to outside of the sealed container, wherein, after start-up of the compressor and when the liquid surface level obtained by the liquid surface sensor is equal to or higher than the reference level after driving of the heating unit, the control unit is configured to control the oil drain unit to drain the oil to the outside of the sealed container. a suction pipe connected to a side surface portion of the sealed container to allow refrigerant flowing a suction side of the compressor to pass through the suction pipe; a liquid surface sensor configured to detect a liquid surface level inside the sealed container; a heating unit provided inside the sealed container; and a control unit configured to drive the heating unit, when the liquid surface level obtained by the liquid surface sensor is equal to or higher than a reference level, characterized in that the control unit is configured to drive the heating unit, when the liquid surface level obtained by the liquid surface sensor is equal to or higher than the reference level after start-up of the compressor, and further comprising an oil drain unit configured to drain oil stored in the sealed container to outside of the sealed container, wherein, after start-up of the compressor and when the liquid surface level obtained by the liquid surface sensor is equal to or higher than the reference level after driving of the heating unit, the control unit is configured to control the oil drain unit to drain the oil to the outside of the sealed container.
An apparatus for wastewater treatment and phosphorus recovery through magnesium ammonium phosphate precipitation, comprising a reactor tank for wastewater retention with an inlet and an outlet, a dosing unit (3, 4) for magnesium chloride (MgClz) and a degassing unit (6, 7), wherein the dosing unit (3, 4) and the degassing unit (6, 7) are each connected or attached to the reactor tank, the apparatus comprises an inlet duct connected to the reactor tank inlet and the dosing unit (3, 4) is connected to the inlet duct, the degassing unit (6, 7) comprises a vacuum pump and the apparatus is configured for maintaining a headspace in the reactor tank at an absolute pressure of 5 to 40 kPa.
An in-line silencer for the specific reduction of sound waves for a turbomachine, in particular for a compressor, having: at least one flow passage (80.1; 90.1), which is surrounded by at least one sound-reducing silencer screen (2; 3; 4), a housing, consisting of at least one horizontally extending reverberating back wall (15; 24; 25) and at least one face end termination plate (9; 10; 11), wherein the respective flow passage (80.1; 90.1) has an inlet and outlet opening each, wherein the silencer screen (2; 3; 4) consists of horizontal axial stringers (12; 13; 14), circumferential stringers (16; 17; 18), the termination plate (9; 10; 11) attached at the face end, at least one sound-damping metal element (21; 22; 23) extending horizontally to the flow-conducting cross section and of the reverberating back wall (15; 24; 25), characterized in that axial stringers (12; 13; 14), circumferential stringers (16; 17; 18) and termination plate (9; 10; 11) are interconnected by plug connections.
Electrical plug connector, comprising an insulating plug connector housing and at least one electrical contact element that is received in the plug connector housing, wherein the plug connector housing forms a mating side and a connection side, wherein at least one contact opening is formed in the plug connector housing, said contact opening extending from the mating side through the plug connector housing as far as the connection side, wherein the electrical contact element is received in the contact opening and is fixed therein, wherein the plug connector housing comprises a cable fixing arrangement on the connection side, the cable fixing arrangement is formed from a first fixing element, which is formed as one on the plug connector housing, and a second fixing element that cooperates with the first fixing element, wherein the second fixing element comprises at least two first slots, wherein the second fixing element comprises a second slot between two first slots respectively, characterized in that the second slot is provided so as to receive a rib that is formed as one on the first fixing element, in that the at least one rib is dimensioned wider than the at least one second slot, such that when the first and second fixing elements are being joined together, the second slots are pushed apart and simultaneously the first slots are pushed together.
A platinum complex, having a structure represented by formulas I-a to I-d: wherein, R 1 is selected from the group consisting of -H, -C n H 2n+1, -C n H 2n-1, -Ar-C n H 2n+1, -Ar-C n H 2n-1, -Ar-O-C n H 2n+1, and -Ar-O-C n H 2n-1, with n=1∼22; R 4 is selected from the group consisting of -C b H 2b -, -C b H 2b-2 -, -Ar-C b H 2b -, -Ar-C b H 2b-2 -, - Ar-O-C b H 2b -, -Ar-O-C b H 2b-2 -, and hyaluronic acid with two carboxyl groups removed, with b=0∼22; R 5 is selected from the group consisting of -H, -C c H 2c+1, -C c H 2c-1, -Ar-C c H 2c+1, -Ar-C c H 2c-1, -Ar-O-C c H 2c+1, -Ar-O-C c H 2c-1, and chitosan with one amino group removed, with c=1∼22; R 6 is selected from the group consisting of -NH 2, -NH-CO-(CH 2) e CH 3, -C d H 2d -NH 2, - C d H 2d-2 -NH 2, -C d H 2d -COOH, -C d H 2d-2 -COOH, and -CdH2d-NH-CO- eCH3, with d=1∼8 and e=1∼21; x=0∼10; wherein H attached to any C can be substituted with a substituent; and wherein the substituent is one or more selected from the group consisting of -NH 2, -OH, - COOH, halogen, and -Ar. R 1 is selected from the group consisting of -H, -C n H 2n+1, -C n H 2n-1, -Ar-C n H 2n+1, -Ar-C n H 2n-1, -Ar-O-C n H 2n+1, and -Ar-O-C n H 2n-1, with n=1∼22; R 4 is selected from the group consisting of -C b H 2b -, -C b H 2b-2 -, -Ar-C b H 2b -, -Ar-C b H 2b-2 -, - Ar-O-C b H 2b -, -Ar-O-C b H 2b-2 -, and hyaluronic acid with two carboxyl groups removed, with b=0∼22; R 5 is selected from the group consisting of -H, -C c H 2c+1, -C c H 2c-1, -Ar-C c H 2c+1, -Ar-C c H 2c-1, -Ar-O-C c H 2c+1, -Ar-O-C c H 2c-1, and chitosan with one amino group removed, with c=1∼22; R 6 is selected from the group consisting of -NH 2, -NH-CO-(CH 2) e CH 3, -C d H 2d -NH 2, - C d H 2d-2 -NH 2, -C d H 2d -COOH, -C d H 2d-2 -COOH, and -CdH2d-NH-CO- eCH3, with d=1∼8 and e=1∼21; x=0∼10; wherein H attached to any C can be substituted with a substituent; and wherein the substituent is one or more selected from the group consisting of -NH 2, -OH, - COOH, halogen, and -Ar.
An integrated router comprising: at least one network interface operative to wirelessly place a first network device in electronical communication with a second network device; an AC power supply input operative to receive AC electrical power from a power supply; an AC power supply output; and a power cycling switch that electrically connects the power supply input to the power supply output, characterized in that the power cycling switch is operative to be toggled by a remote network device via the at least one network interface so as to power cycle the second network device, that the AC power supply output is operative to provide the AC electrical power to the second network device, wherein the at least one network interface, the power supply input, the power supply output and the power cycling switch are embodied in a single device, namely the integrated router. at least one network interface operative to wirelessly place a first network device in electronical communication with a second network device; an AC power supply input operative to receive AC electrical power from a power supply; an AC power supply output; and a power cycling switch that electrically connects the power supply input to the power supply output, characterized in that the power cycling switch is operative to be toggled by a remote network device via the at least one network interface so as to power cycle the second network device, that the AC power supply output is operative to provide the AC electrical power to the second network device, wherein the at least one network interface, the power supply input, the power supply output and the power cycling switch are embodied in a single device, namely the integrated router.
A vitrectomy probe comprising: a first diaphragm secured about a reciprocating component, the first diaphragm driven in a first direction and an opposite second direction by air reciprocatingly delivered thereto; and a second diaphragm secured about the reciprocating component, the second diaphragm driven in the first direction and the opposite second direction by the air reciprocatingly delivered thereto; wherein the air is delivered to drive the first diaphragm in the first direction and drive the second diaphragm in the first direction at the same time during a first half of the reciprocation, and subsequently, the air is delivered to drive the first diaphragm in the second direction and the second diaphragm in the second direction at the same time during a second half of the reciprocation. a first diaphragm secured about a reciprocating component, the first diaphragm driven in a first direction and an opposite second direction by air reciprocatingly delivered thereto; and a second diaphragm secured about the reciprocating component, the second diaphragm driven in the first direction and the opposite second direction by the air reciprocatingly delivered thereto; wherein the air is delivered to drive the first diaphragm in the first direction and drive the second diaphragm in the first direction at the same time during a first half of the reciprocation, and subsequently, the air is delivered to drive the first diaphragm in the second direction and the second diaphragm in the second direction at the same time during a second half of the reciprocation.
A method of generating a pulse width modulation signal, comprising: initializing at least one phase index variable to an initial value; establishing a set of values in a lookup table that correspond to data points for PWM comparator values that correspond to a given number of samples of a single periodic waveform during a predetermined sampling rate that establishes a table resolution; repeatedly executing the following operations at the predetermined sampling rate: determining a value of a command signal frequency; setting a value to a jump factor equal to the quotient of the value of the command signal frequency divided by the table resolution; progressing the value of the phase index variable by the value of the jump factor; selecting a value of a commutation vector from the lookup table that corresponds to the phase index variable; and loading the value of the commutation vector into a corresponding PWM comparator. initializing at least one phase index variable to an initial value; establishing a set of values in a lookup table that correspond to data points for PWM comparator values that correspond to a given number of samples of a single periodic waveform during a predetermined sampling rate that establishes a table resolution; repeatedly executing the following operations at the predetermined sampling rate: determining a value of a command signal frequency; setting a value to a jump factor equal to the quotient of the value of the command signal frequency divided by the table resolution; progressing the value of the phase index variable by the value of the jump factor; selecting a value of a commutation vector from the lookup table that corresponds to the phase index variable; and loading the value of the commutation vector into a corresponding PWM comparator. determining a value of a command signal frequency; setting a value to a jump factor equal to the quotient of the value of the command signal frequency divided by the table resolution; progressing the value of the phase index variable by the value of the jump factor; selecting a value of a commutation vector from the lookup table that corresponds to the phase index variable; and loading the value of the commutation vector into a corresponding PWM comparator.
A method for diagnosing a fault condition in a climate system, the method comprising: receiving current Parameters from the climate system in the fault condition, the current Parameters including a plurality of current measured and estimated data from the climate system; determining a first set of transition probabilities based on the current Parameters; determining a second set of transition probabilities based on historical Parameters from the climate system operating under normal conditions, the historical Parameters including a plurality of historical measured and estimated data from the climate system; calculating an anomaly score for the climate system from the first set of transition probabilities and the second set of transition probabilities; and when the anomaly score is above a predefined threshold, generating automatically a diagnosis of a first problem causing the fault condition. receiving current Parameters from the climate system in the fault condition, the current Parameters including a plurality of current measured and estimated data from the climate system; determining a first set of transition probabilities based on the current Parameters; determining a second set of transition probabilities based on historical Parameters from the climate system operating under normal conditions, the historical Parameters including a plurality of historical measured and estimated data from the climate system; calculating an anomaly score for the climate system from the first set of transition probabilities and the second set of transition probabilities; and when the anomaly score is above a predefined threshold, generating automatically a diagnosis of a first problem causing the fault condition.
Nozzle changer for fitting nozzles on, and/or for removing nozzles from, a nozzle-retaining device, which is formed in particular on a processing head of a laser-processing machine, comprising: a plurality of nozzle-retaining units for storing nozzles, wherein at least one nozzle-retaining unit has, in particular all the nozzle-retaining units have, a nozzle mount with a nozzle-storage space which is open in the upward direction and is intended for the storage of at least one nozzle, characterized by a nozzle magazine having a closed guide path for storing the plurality of nozzle-retaining units, wherein the non-interconnected nozzle-retaining units form a push chain along the closed guide path, and a positioning drive for moving the nozzle-retaining units along the closed guide path in order to position one of the nozzle-retaining units at a transfer position along the guide path for fitting a nozzle on, and/or removing a nozzle from, the nozzle-retaining device. a plurality of nozzle-retaining units for storing nozzles, wherein at least one nozzle-retaining unit has, in particular all the nozzle-retaining units have, a nozzle mount with a nozzle-storage space which is open in the upward direction and is intended for the storage of at least one nozzle, characterized by a nozzle magazine having a closed guide path for storing the plurality of nozzle-retaining units, wherein the non-interconnected nozzle-retaining units form a push chain along the closed guide path, and a positioning drive for moving the nozzle-retaining units along the closed guide path in order to position one of the nozzle-retaining units at a transfer position along the guide path for fitting a nozzle on, and/or removing a nozzle from, the nozzle-retaining device.