mhurhangee/ep-ind-claims huggingface dataset:
Use of a polymer as a defoaming agent in a lubricating oil composition, wherein the polymer has a weight average molecular weight of 100,000 to 1,000,000, the polymer comprising: a repeating unit represented by the following general formula; and a repeating unit represented by the following general formula: wherein in the general formula, X 1 is a repeating unit obtainable by polymerization of a first (meth)acryloyl group; Y 1 is a side chain comprising a linear or branched polysiloxane structure, the polysiloxane structure comprising a repeating unit represented by the following general formula and having a polymerization degree of 5 to 300; and Z 1 is a linking group linking the repeating unit X 1 and the side chain Y 1; wherein in the general formula, R 1 and R 2 are each independently an organic group having a carbon number of 1 to 18; and wherein in the general formula, X 2 is a repeating unit obtainable by polymerization of a second (meth)acryloyl group; Y 2 is a C 1-30 hydrocarbyl side chain; and Z 2 is a linking group linking the repeating unit X 2 and the side chain Y 2. a repeating unit represented by the following general formula; and a repeating unit represented by the following general formula: wherein in the general formula, X 1 is a repeating unit obtainable by polymerization of a first (meth)acryloyl group; Y 1 is a side chain comprising a linear or branched polysiloxane structure, the polysiloxane structure comprising a repeating unit represented by the following general formula and having a polymerization degree of 5 to 300; and Z 1 is a linking group linking the repeating unit X 1 and the side chain Y 1; wherein in the general formula, R 1 and R 2 are each independently an organic group having a carbon number of 1 to 18; and wherein in the general formula, X 2 is a repeating unit obtainable by polymerization of a second (meth)acryloyl group; Y 2 is a C 1-30 hydrocarbyl side chain; and Z 2 is a linking group linking the repeating unit X 2 and the side chain Y 2.
An electrical stimulation device configured to perform a stimulation therapy on a patient, the device comprising: a stimulation circuit; at least one electrode lead comprising one or more electrodes; an interface; memory including a security code; a communication circuit; and a controller configured to enable use of the device responsive to a match between the security code and a code input by a user through the interface, and execute a stimulation program received through the communication circuit when the device is enabled; wherein electrical stimulation pulses are generated by the stimulation circuit and delivered to the at least one electrode lead in response to the execution of the stimulation program. a stimulation circuit; at least one electrode lead comprising one or more electrodes; an interface; memory including a security code; a communication circuit; and a controller configured to enable use of the device responsive to a match between the security code and a code input by a user through the interface, and execute a stimulation program received through the communication circuit when the device is enabled; wherein electrical stimulation pulses are generated by the stimulation circuit and delivered to the at least one electrode lead in response to the execution of the stimulation program.
A method of producing an aromatic product and an olefin product from a petroleum fraction obtained by fluid catalytic cracking, comprising the steps of: (a) cracking light cycle oil obtained by fluid catalytic cracking in the presence of a catalyst for catalytic cracking; (b) separating the cracked light cycle oil into i) an aromatic product including benzene, toluene and xylene, ii) a gaseous mixture including olefins, and iii) an aromatic mixture having two or more aromatic rings; (c) hydrogenating the aromatic mixture having two or more aromatic rings in the presence of a catalyst for hydrogenation to partially saturate the two or more aromatic rings with hydrogen; and (d) recycling the hydrogenated aromatic mixture to mix the hydrogenated aromatic mixture with the light cycle oil introduced in the step (a); wherein step (a) of cracking the light cycle oil is performed at a temperature of 420-800°C and a pressure of 1-10 atm. (a) cracking light cycle oil obtained by fluid catalytic cracking in the presence of a catalyst for catalytic cracking; (b) separating the cracked light cycle oil into i) an aromatic product including benzene, toluene and xylene, ii) a gaseous mixture including olefins, and iii) an aromatic mixture having two or more aromatic rings; (c) hydrogenating the aromatic mixture having two or more aromatic rings in the presence of a catalyst for hydrogenation to partially saturate the two or more aromatic rings with hydrogen; and (d) recycling the hydrogenated aromatic mixture to mix the hydrogenated aromatic mixture with the light cycle oil introduced in the step (a);
An additive auto-feeding device, comprising: a water supply flow channel; a liquid storage box for containing an additive inside; a suction structure being configured to suck the additive in the liquid storage box to the water supply flow channel and transfer the additive along with water flow to a water outlet; characterized by, an anti-back suction device which is arranged at a pressure adjusting opening of the water supply flow channel, wherein when water enters the water supply flow channel, under a pressure effect of flowing water, the anti-back suction device is controlled to close the pressure adjusting opening; and when negative pressure is generated in the water supply flow channel, the anti-back suction device is controlled to open the pressure adjusting opening for adjusting the pressure in the water supply flow channel; and a pressure adjusting chamber which is arranged on the water supply flow channel, the pressure adjusting opening is arranged on the top of the pressure adjusting chamber and a pressure adjusting device is arranged at the pressure adjusting opening and correspondingly covers and closes the pressure adjusting opening under the effect of water flow pressure. a water supply flow channel; a liquid storage box for containing an additive inside; a suction structure being configured to suck the additive in the liquid storage box to the water supply flow channel and transfer the additive along with water flow to a water outlet; characterized by, an anti-back suction device which is arranged at a pressure adjusting opening of the water supply flow channel, wherein when water enters the water supply flow channel, under a pressure effect of flowing water, the anti-back suction device is controlled to close the pressure adjusting opening; and when negative pressure is generated in the water supply flow channel, the anti-back suction device is controlled to open the pressure adjusting opening for adjusting the pressure in the water supply flow channel; and a pressure adjusting chamber which is arranged on the water supply flow channel, the pressure adjusting opening is arranged on the top of the pressure adjusting chamber and a pressure adjusting device is arranged at the pressure adjusting opening and correspondingly covers and closes the pressure adjusting opening under the effect of water flow pressure.
A method for rotating a sleeve for bobbins of a textile machine, - wherein the sleeve is removed from a sleeve magazine oriented in a first direction, - is rotated substantially through 90° transversely to its sleeve axis in a second direction, - and is transported further in the second direction with a transport device, - a first side of the sleeve contacts a transport device, in particular a conveyor belt, which is moved transversely to the first direction in the second direction, - wherein the transport device moves this first side transversely to the sleeve axis, characterized in that - the first and the second direction (10, 12) are perpendicular to one another and form a plane which is parallel to a ground on which the textile machine is located, - a retaining element or a second transport device, in particular a second conveyor belt, is provided, with which at the same time a second side of the sleeve is not moved relative to the first side or is moved at least more slowly transversely to the sleeve axis, so that the sleeve performs the rotation transversely to the sleeve axis, and - the retaining element is a turntable which causes the rotation of the sleeve as an obstacle for the sleeve. - wherein the sleeve is removed from a sleeve magazine oriented in a first direction, - is rotated substantially through 90° transversely to its sleeve axis in a second direction, - and is transported further in the second direction with a transport device, - a first side of the sleeve contacts a transport device, in particular a conveyor belt, which is moved transversely to the first direction in the second direction, - wherein the transport device moves this first side transversely to the sleeve axis, characterized in that - the first and the second direction (10, 12) are perpendicular to one another and form a plane which is parallel to a ground on which the textile machine is located, - a retaining element or a second transport device, in particular a second conveyor belt, is provided, with which at the same time a second side of the sleeve is not moved relative to the first side or is moved at least more slowly transversely to the sleeve axis, so that the sleeve performs the rotation transversely to the sleeve axis, and - the retaining element is a turntable which causes the rotation of the sleeve as an obstacle for the sleeve.
A system to target a heart rhythm disorder, the system comprising at least one computing device configured to receive cardiac signals associated with the heart rhythm disorder, the system being characterized in that the at least one computing device is further configured to: process the cardiac signals associated with the heart rhythm disorder to track a path of migration of a source associated with the heart rhythm disorder over the multiple periods of time; determine a shape (2402A, 2404A, 2502A, 2602A) in a region of tissue defined by the path of migration of the source associated with the heart rhythm disorder, wherein the source migrates spatially on or within the shape (2402A, 2404A,2502A, 2602A) over multiple periods of time; and identify at least one portion of the tissue proximate to the shape (2402A, 2404A,2502A, 2602A) to enable selective modification of the at least one portion in order to terminate or alter the heart rhythm disorder. process the cardiac signals associated with the heart rhythm disorder to track a path of migration of a source associated with the heart rhythm disorder over the multiple periods of time; determine a shape (2402A, 2404A, 2502A, 2602A) in a region of tissue defined by the path of migration of the source associated with the heart rhythm disorder, wherein the source migrates spatially on or within the shape (2402A, 2404A,2502A, 2602A) over multiple periods of time; and identify at least one portion of the tissue proximate to the shape (2402A, 2404A,2502A, 2602A) to enable selective modification of the at least one portion in order to terminate or alter the heart rhythm disorder.
A CNS-active compound according to Formula I: wherein Ar is a substituted phenyl, optionally substituted naphthyl, optionally substituted tetrahydronaphthyl, or optionally substituted indane, wherein up to 5 substituents are present on Ar and each substituent is independently selected from the group consisting of alkyl, halogen, alkoxy, haloalkyl, haloalkoxy, CN, phenyl, and phenoxy, or wherein an alkylenedioxy substituent forms a ring with Ar; R 1 and R 2 are each independently H or alkyl; R 3 is alkyl, or together with R 4 a cycloalkyl; R 4 is alkyl or together with R 3 a cycloalkyl; and X is one of nothing, oxygen, NR 1, sulfur, sulfone, or sulfoxide; or a CNS-active compound having one of Formulas D-O, W-Z, AA-AC, AE, AG, AL-AS, and AV- AY: with the proviso that the CNS-active compound is not one of: wherein Ar is a substituted phenyl, optionally substituted naphthyl, optionally substituted tetrahydronaphthyl, or optionally substituted indane, wherein up to 5 substituents are present on Ar and each substituent is independently selected from the group consisting of alkyl, halogen, alkoxy, haloalkyl, haloalkoxy, CN, phenyl, and phenoxy, or wherein an alkylenedioxy substituent forms a ring with Ar; wherein up to 5 substituents are present on Ar and each substituent is independently selected from the group consisting of alkyl, halogen, alkoxy, haloalkyl, haloalkoxy, CN, phenyl, and phenoxy, or wherein an alkylenedioxy substituent forms a ring with Ar; R 1 and R 2 are each independently H or alkyl; R 3 is alkyl, or together with R 4 a cycloalkyl; R 4 is alkyl or together with R 3 a cycloalkyl; and X is one of nothing, oxygen, NR 1, sulfur, sulfone, or sulfoxide; or a CNS-active compound having one of Formulas D-O, W-Z, AA-AC, AE, AG, AL-AS, and AV- AY: with the proviso that the CNS-active compound is not one of:
A fusible switch disconnect device, comprising: a disconnect housing adapted to receive at least one fuse therein, the fuse being separately provided from the housing and being removably insertable in the housing, the housing comprising a line side access port, a load side access port, characterised by: a first auxiliary access port, and a second auxiliary access port, wherein the first and second auxiliary ports are spaced apart from the line-side and load side access ports; switch contacts (928,930) in the disconnect housing for completing and breaking an electrical connection through the fuse without removing the fuse from the housing; line side and load side terminals (934,946) connecting to the fuse when the fuse is inserted into the housing, each of the line side and load side terminals comprising first and second portions (956,958) distinct from one another; a first wire establishing an electrical connection to the first portion of the line side terminal via the line-side access port; a second wire establishing an electrical connection to the first portion of the load side terminal via the load-side access port; a third wire establishing an electrical connection to the second portion of the line side terminal via the first auxiliary access port; and a fourth wire establishing an electrical connection to the second portion of the load side terminal via the second auxiliary access port. a disconnect housing adapted to receive at least one fuse therein, the fuse being separately provided from the housing and being removably insertable in the housing, the housing comprising a line side access port, a load side access port, characterised by: a first auxiliary access port, and a second auxiliary access port, wherein the first and second auxiliary ports are spaced apart from the line-side and load side access ports; switch contacts (928,930) in the disconnect housing for completing and breaking an electrical connection through the fuse without removing the fuse from the housing; line side and load side terminals (934,946) connecting to the fuse when the fuse is inserted into the housing, each of the line side and load side terminals comprising first and second portions (956,958) distinct from one another; a first wire establishing an electrical connection to the first portion of the line side terminal via the line-side access port; a second wire establishing an electrical connection to the first portion of the load side terminal via the load-side access port; a third wire establishing an electrical connection to the second portion of the line side terminal via the first auxiliary access port; and a fourth wire establishing an electrical connection to the second portion of the load side terminal via the second auxiliary access port.
A freezing device comprising: a compressor configured to compress a CO 2 refrigerant; a gas cooler configured to cool a CO 2 refrigerant discharged from the compressor; and a control unit configured to set a high-pressure target value of the CO 2 refrigerant so that the CO 2 refrigerant in the gas cooler becomes subcritical and perform subcritical control when an outside air temperature is less than a first predetermined temperature, which is lower than a critical point of the CO 2 refrigerant, and a target evaporation temperature in an evaporator to which the CO 2 refrigerant cooled by the gas cooler is guided via an expansion valve (7,8) is less than or equal to a second predetermined temperature. a compressor configured to compress a CO 2 refrigerant; a gas cooler configured to cool a CO 2 refrigerant discharged from the compressor; and a control unit configured to set a high-pressure target value of the CO 2 refrigerant so that the CO 2 refrigerant in the gas cooler becomes subcritical and perform subcritical control when an outside air temperature is less than a first predetermined temperature, which is lower than a critical point of the CO 2 refrigerant, and a target evaporation temperature in an evaporator to which the CO 2 refrigerant cooled by the gas cooler is guided via an expansion valve (7,8) is less than or equal to a second predetermined temperature.
A method for cutting passages in an airfoil using a liquid-jet guided laser, comprising: positioning a frustoconical tip of the liquid-jet guided laser at a first X, Y and Z location defined with respect to the airfoil and at a first standoff distance of greater than 5mm and less than 25mm from an outer surface of the airfoil; generating a laser beam confined within a fluid column via the liquid-jet guided laser, wherein the laser beam is aimed at the outer surface; tracking pulses of the laser beam; flowing a purge medium through the inner cavity of the airfoil after a predefined number of pulses of the laser beam; monitoring for breakthrough of the laser beam through an inner surface of an inner cavity of the airfoil; shutting off the laser beam once breakthrough is detected; and repositioning the frustoconical tip at a second X, Y and Z location and at a second standoff distance from the airfoil. positioning a frustoconical tip of the liquid-jet guided laser at a first X, Y and Z location defined with respect to the airfoil and at a first standoff distance of greater than 5mm and less than 25mm from an outer surface of the airfoil; generating a laser beam confined within a fluid column via the liquid-jet guided laser, wherein the laser beam is aimed at the outer surface; tracking pulses of the laser beam; flowing a purge medium through the inner cavity of the airfoil after a predefined number of pulses of the laser beam; monitoring for breakthrough of the laser beam through an inner surface of an inner cavity of the airfoil; shutting off the laser beam once breakthrough is detected; and repositioning the frustoconical tip at a second X, Y and Z location and at a second standoff distance from the airfoil.
Locking element, particularly tank ring lock, for attaching luggage or motorcycle accessories to a motorcycle, particularly to its tank or rear, comprising a motorcycle-side adapter, particularly a tank ring adapter, which can be firmly connected to the motorcycle, particularly its tank, and carries two receiving cams arranged at a distance from each other, preferably parallel, and a locking element, which can be firmly connected to the back of the luggage or the motorcycle accessory, wherein the locking element comprises a housing that can be statically fixed to the luggage or motorcycle accessory and a slider movably mounted on the housing, wherein the housing includes openings into which the receiving cams can be inserted and the slider can be moved on the housing from a holding position to an unlocking position against a restoring spring force, wherein the locking element is designed to hold the receiving cams in the openings when the slider is in the holding position wherein at least one locking element is arranged on the housing, which interacts with a spring body of the slider and is designed to hold the slider in the unlocking position and wherein the receiving cams have a stop which is arranged to interact with the spring body when inserting the receiving cams into the openings and to release it from the locking element, characterized in that the slider has receiving elements which can be retracted for unhindered insertion into the openings. a motorcycle-side adapter, particularly a tank ring adapter, which can be firmly connected to the motorcycle, particularly its tank, and carries two receiving cams arranged at a distance from each other, preferably parallel, and a locking element, which can be firmly connected to the back of the luggage or the motorcycle accessory, wherein the locking element comprises a housing that can be statically fixed to the luggage or motorcycle accessory and a slider movably mounted on the housing, wherein the housing includes openings into which the receiving cams can be inserted and the slider can be moved on the housing from a holding position to an unlocking position against a restoring spring force, wherein the locking element is designed to hold the receiving cams in the openings when the slider is in the holding position wherein at least one locking element is arranged on the housing, which interacts with a spring body of the slider and is designed to hold the slider in the unlocking position and wherein the receiving cams have a stop which is arranged to interact with the spring body when inserting the receiving cams into the openings and to release it from the locking element, characterized in that the slider has receiving elements which can be retracted for unhindered insertion into the openings.
A subsea communication network arranged in a topology having a first side and a further side, comprising: two or more Subsea Control Modules (SCMs) (170 1-4) each comprising a respective A side Subsea Electronics Module (200 1-4) connected to a further B side SEM (210 1-4) via an internal communication link (290 1-4); an A side surface modem unit and a further B side SMU; an A side surface Power Supply Module connected to the respective A side SEM (200 1-4) of each SCM (170 1-4) and a further B side surface PSM connected to the respective B side SEM (210 1-4) of each SCM (170 1-4); wherein at least two SEMs (200 1-4 210 1-4) sharing a common side allocation in each of the first and further sides of the network are connected together via a point-to-point communication link (264, 266, 270; 274, 276, 278); and wherein at least one SEM (200, 200 4 210 1 210 4) in each of the A & B sides of the network is connected to a respective SMU (220, 225) sharing a common side allocation via a point-to-point communication link (242, 244, 252, 254) and to a further SEM (200 2 200 3 210 2 210 3) in the common side allocation via a point-to-point communication link (264, 270, 274, 278). two or more Subsea Control Modules (SCMs) (170 1-4) each comprising a respective A side Subsea Electronics Module (200 1-4) connected to a further B side SEM (210 1-4) via an internal communication link (290 1-4); an A side surface modem unit and a further B side SMU; an A side surface Power Supply Module connected to the respective A side SEM (200 1-4) of each SCM (170 1-4) and a further B side surface PSM connected to the respective B side SEM (210 1-4) of each SCM (170 1-4); wherein at least two SEMs (200 1-4 210 1-4) sharing a common side allocation in each of the first and further sides of the network are connected together via a point-to-point communication link (264, 266, 270; 274, 276, 278); and wherein at least one SEM (200, 200 4 210 1 210 4) in each of the A & B sides of the network is connected to a respective SMU (220, 225) sharing a common side allocation via a point-to-point communication link (242, 244, 252, 254) and to a further SEM (200 2 200 3 210 2 210 3) in the common side allocation via a point-to-point communication link (264, 270, 274, 278).