mhurhangee/ep-ind-claims huggingface dataset:
A flow battery (1000; 2000; 3000; 4000) comprising: a first liquid containing a redox mediator; a first electrode; a first active material; and a first circulator that circulates the first liquid between the first electrode and the first active material, wherein: the first active material is a solid active material that is insoluble in the first liquid, the redox mediator contains a triphenylamine derivative, and the triphenylamine derivative includes at least one phenyl group having one or more substituents at one or more of positions 2, 4, and 6. a first liquid containing a redox mediator; a first electrode; a first active material; and a first circulator that circulates the first liquid between the first electrode and the first active material, wherein: the first active material is a solid active material that is insoluble in the first liquid, the redox mediator contains a triphenylamine derivative, and the triphenylamine derivative includes at least one phenyl group having one or more substituents at one or more of positions 2, 4, and 6. the first active material is a solid active material that is insoluble in the first liquid, the redox mediator contains a triphenylamine derivative, and the triphenylamine derivative includes at least one phenyl group having one or more substituents at one or more of positions 2, 4, and 6.
A method of diagnosing multiple sclerosis in a human subject, the method comprising: evaluating a level of one or more 15-oxysterol in a serum sample from the human subject by a method comprising subjecting the serum sample to lipid extraction and analysing the sample using tandem quadrupole GC-MS-MS; and comparing the level of the 15-oxysterol in the sample with a reference level, wherein the level of the 15-oxysterol in the sample in comparison to the reference is indicative of whether the human subject has multiple sclerosis. evaluating a level of one or more 15-oxysterol in a serum sample from the human subject by a method comprising subjecting the serum sample to lipid extraction and analysing the sample using tandem quadrupole GC-MS-MS; and comparing the level of the 15-oxysterol in the sample with a reference level, wherein the level of the 15-oxysterol in the sample in comparison to the reference is indicative of whether the human subject has multiple sclerosis.
A power supply device comprising: a first input terminal configured to be supplied AC power from a system; a first power converter configured to convert AC power supplied via the first input terminal into DC power; a second input terminal configured to be supplied power from an electric power generator; a second power converter configured to convert power supplied via the second input terminal into DC power; a storage battery; a connection bus connected to an output side of the first power converter, an output side of the second power converter, and the storage battery; an output terminal configured to output some of DC power obtained via the connection bus; a controller configured to control the first power converter such that the amount of AC power supplied from the system does not exceed an upper limit value; and an AC power output terminal connected to the first input terminal, wherein power from the AC power output terminal is output as AC power to a load when sufficient power cannot be supplied from the output terminal through which some of the DC power obtained via the connection bus is output to the load connected to the output terminal. a first input terminal configured to be supplied AC power from a system; a first power converter configured to convert AC power supplied via the first input terminal into DC power; a second input terminal configured to be supplied power from an electric power generator; a second power converter configured to convert power supplied via the second input terminal into DC power; a storage battery; a connection bus connected to an output side of the first power converter, an output side of the second power converter, and the storage battery; an output terminal configured to output some of DC power obtained via the connection bus; a controller configured to control the first power converter such that the amount of AC power supplied from the system does not exceed an upper limit value; and an AC power output terminal connected to the first input terminal, wherein power from the AC power output terminal is output as AC power to a load when sufficient power cannot be supplied from the output terminal through which some of the DC power obtained via the connection bus is output to the load connected to the output terminal.
A vacuum cleaner floor nozzle comprising a housing, a sliding base arranged on the underside of the housing, and a suction mouth, which is arranged in the sliding base and which extends in a transverse direction (y) and which is limited by a boundary, wherein, in a working direction (x), which is perpendicular to the transverse direction (y), the sliding base has a flat region in front of and/or behind the suction mouth, wherein, between the flat region and the suction mouth, the sliding base has a superelevation, which connects continuously to the flat region and which protrudes beyond the extension of the flat region, characterized in that the maximum height (h) of the superelevation has a distance of less than 1 mm from the boundary of the suction mouth.
Method for diagnosing a faulty electrical connection in an electrical system comprising at least one electrical power source and at least one electrical component (12 1 to 12 3) electrically connected through an electrical switch, said method comprising the steps of a) measuring first and second electrical voltages (Ub; Uc1 to Uc3) present between terminals of said electrical power source and said electrical component (12 1 to 12 3), b) calculating a difference of voltage (EV1 to EV3) between said first and second electrical voltages (Ub; Uc1 to Uc3), c) comparing said voltage difference (EV1 to EV3) to a predetermined voltage threshold (TH1 to TH3), d) diagnosing a connection faulty electrical connection between said electrical power source and said electrical component (12 1 to 12s) as a function of the result of said comparison, and e) controlling an opening of said electrical switch and/or an emission of an alert signal in the case where a faulty electrical connection is diagnosed, characterized in that said voltage threshold (TH1 to TH3) is predetermined equal to a normal maximum voltage drop (Umax) between said power source electrical and said electrical component (12 1 to 12s) when said electrical connection is normal, multiplied by a safety margin factor.
Electrode for recording electroencephalographic signals and/or for stimulating patients, comprising a patient contact part and a transmission part, a layer of electrolyte material is further provided which during use is in contact with the patient's skin and interposed between the patient's skin and the contact part, said contact part consisting of a soft and/or flexible material, said contact part comprising a cup element adapted to house at least in part said layer of electrolyte material, which cup element consists of a matrix of rubbery material, inside which matrix particles of conductive material are embedded characterized in that a layer of conductive material is provided, interposed, at least in part, between the cup element and the layer of electrolyte material, said layer of conductive material consists of one or more layers of conductive ink. a layer of electrolyte material is further provided which during use is in contact with the patient's skin and interposed between the patient's skin and the contact part, said contact part consisting of a soft and/or flexible material, said contact part comprising a cup element adapted to house at least in part said layer of electrolyte material, which cup element consists of a matrix of rubbery material, inside which matrix particles of conductive material are embedded characterized in that a layer of conductive material is provided, interposed, at least in part, between the cup element and the layer of electrolyte material, said layer of conductive material consists of one or more layers of conductive ink.
A composition comprising a CRISPR-Cas system for use in treating an ocular genetic disease by localized administration to a subject's eye, wherein the CRISPR-Cas system comprises: A. a polynucleotide encoding a CRISPR-Cas system RNA comprising: a) a guide sequence capable of hybridizing to an ocular genetic disease target sequence, b) a tracr mate sequence, and c) a tracr sequence wherein (a), (b) and (c) are arranged in a 5' to 3' orientation; and B. a polynucleotide encoding a Cas9; each of A and B are: formulated for delivery together in a delivery vehicle, the vehicle being an adeno-associated viral vector, wherein the AAV is AAV1, AAV2 or AAV5; and capable, when administered together to the subject's eye, of forming a CRISPR-Cas complex comprising the Cas9, and the CRISPR-Cas system RNA. A. a polynucleotide encoding a CRISPR-Cas system RNA comprising: a) a guide sequence capable of hybridizing to an ocular genetic disease target sequence, b) a tracr mate sequence, and c) a tracr sequence wherein (a), (b) and (c) are arranged in a 5' to 3' orientation; and a) a guide sequence capable of hybridizing to an ocular genetic disease target sequence, b) a tracr mate sequence, and c) a tracr sequence B. a polynucleotide encoding a Cas9; each of A and B are: formulated for delivery together in a delivery vehicle, the vehicle being an adeno-associated viral vector, wherein the AAV is AAV1, AAV2 or AAV5; and capable, when administered together to the subject's eye, of forming a CRISPR-Cas complex comprising the Cas9, and the CRISPR-Cas system RNA. formulated for delivery together in a delivery vehicle, the vehicle being an adeno-associated viral vector, wherein the AAV is AAV1, AAV2 or AAV5; and capable, when administered together to the subject's eye, of forming a CRISPR-Cas complex comprising the Cas9, and the CRISPR-Cas system RNA.
A method for determining a set of points to be supported for an object having to be fabricated by means of an additive fabrication method, comprising a step consisting in subdividing the object into successive layers (C i), each layer corresponding to a thickness of material deposited during the fabrication of the object; and characterized in that it comprises, for each layer, adding, to a set of points to be supported, points to be supported on the surface of the object which make it possible to guarantee the stability of all the sub-objects (2 n) of the object, a sub-object being defined as a solid resulting from the fabrication of the i first layers (C i) of the object, in that it comprises, to guarantee the stability of any sub-object (2 n), a step consisting in checking that each sub-object placed on a horizontal base plane is in stable static equilibrium, a step during which it is checked whether a so-called center-of-mass disk (D(M n)), the center of which corresponds to the projection of the center of mass (C m,n) of said sub-object and having a predefined radius, is entirely situated within a base surface (B n) of said sub-object, and in that it comprises, if it is confirmed that the sub-object (2 n) is unstable, a step consisting in increasing the base surface (B n) of said sub-object by providing at least one substantially vertical support element between a point of contact (Pc) of the base plane located outside the base surface and a point to be supported (P S) on the surface of the sub-object (2 n) projected vertically outside of the base plane of the sub-object and located at a distance from said point of contact less than a distance corresponding to the radius of said center-of-mass disk, said point to be supported (P S) on the surface of the sub-object thus defined being added to the set of the points to be supported, the base surface Bn of a sub-object 2n being the smallest convex polygonal surface comprising all the points of the sub-object 2n in contact with the base plane XY.
A method of manufacturing a heat transfer plate where a heat medium pipe configured to circulate a heat medium for heating or cooling a heat component is housed inside a plate·form base member, the method comprising the steps of inserting the heat medium pipe in a concave groove open to an obverse of the base member and having a depth size longer than an outer diameter size of the heat medium pipe; inserting a lid plate in an opening of the concave groove positioned at an upper portion of the heat medium pipe within the concave groove; and then fixing the lid plate to the base member by friction stirring joining, the method characterized by deforming the heat medium pipe plastically and making the heat medium pipe abut with the concave groove by pressing the lid plate towards a bottom portion of the concave groove before friction stirring joining the lid plate to the base member. inserting the heat medium pipe in a concave groove open to an obverse of the base member and having a depth size longer than an outer diameter size of the heat medium pipe; inserting a lid plate in an opening of the concave groove positioned at an upper portion of the heat medium pipe within the concave groove; and then fixing the lid plate to the base member by friction stirring joining, the method characterized by deforming the heat medium pipe plastically and making the heat medium pipe abut with the concave groove by pressing the lid plate towards a bottom portion of the concave groove before friction stirring joining the lid plate to the base member.
Method for producing a structured multi-layer system using processing radiation capable of self interference, of a wavelength for which at least one layer of the multi-layer system is partially permeable, characterized in that the layer thickness (d; d1) of at least one first partially permeable layer (13; 25), the wavelength and intensity of the processing radiation and its angle of incidence are predetermined in such a way that an increased amount of energy, equal to a modification threshold energy of the first layer or slightly above that, is absorbed in the first layer in the area of exposure to the processing radiation as a result of destructive interference.
A sander comprising: a housing; a motor disposed within the housing and including an output shaft; a sanding platen driven by the motor for movement relative to the housing; and a two-piece fan (34, 134) driven by the motor and including a first piece (50, 150) and a second piece (52, 152), the first piece including a disk-shaped body having first and second opposite sides, the first side including a plurality of first blades extending therefrom, the second side including a recess (68, 168) formed therein, the second piece (52, 152) received in the recess and including a counterweight boss (96, 98) formed thereon; characterized in that the first piece (50, 150) of the two-piece fan (34, 134) is formed from a first material and the second piece (52, 152) of the two-piece fan (34, 134) is formed from a second material, and the second side of the disk-shaped body of the first piece (50, 150) includes a plurality of second blades extending therefrom. a housing; a motor disposed within the housing and including an output shaft; a sanding platen driven by the motor for movement relative to the housing; and a two-piece fan (34, 134) driven by the motor and including a first piece (50, 150) and a second piece (52, 152), the first piece including a disk-shaped body having first and second opposite sides, the first side including a plurality of first blades extending therefrom, the second side including a recess (68, 168) formed therein, the second piece (52, 152) received in the recess and including a counterweight boss (96, 98) formed thereon; characterized in that the first piece (50, 150) of the two-piece fan (34, 134) is formed from a first material and the second piece (52, 152) of the two-piece fan (34, 134) is formed from a second material, and the second side of the disk-shaped body of the first piece (50, 150) includes a plurality of second blades extending therefrom.
A positioning method, comprising: obtaining, by a terminal, an outdoor positioning result by using an outdoor positioning service; attempting, by the terminal when information about a satellite that provides the outdoor positioning service meets a preset condition, to obtain an indoor positioning result by using an indoor positioning service, wherein the preset condition is used to indicate that the terminal has an indoor positioning requirement, wherein the satellite information comprises a quantity X of target satellites that provide a positioning service, and the target satellite is a satellite that is in all satellites that provide a positioning service for the terminal and that sends a satellite signal with a signal-to-noise ratio greater than a preset value, wherein X≥0; and the preset condition is: X≥N, and 0< N; and if the indoor positioning result is successfully obtained, switching, by the terminal, the outdoor positioning service to the indoor positioning service. obtaining, by a terminal, an outdoor positioning result by using an outdoor positioning service; attempting, by the terminal when information about a satellite that provides the outdoor positioning service meets a preset condition, to obtain an indoor positioning result by using an indoor positioning service, wherein the preset condition is used to indicate that the terminal has an indoor positioning requirement, wherein the satellite information comprises a quantity X of target satellites that provide a positioning service, and the target satellite is a satellite that is in all satellites that provide a positioning service for the terminal and that sends a satellite signal with a signal-to-noise ratio greater than a preset value, wherein X≥0; and the preset condition is: X≥N, and 0< N; and if the indoor positioning result is successfully obtained, switching, by the terminal, the outdoor positioning service to the indoor positioning service.
A method for monitoring at least one activity of a connected object (2, 3, 4), the method being implemented by a device for monitoring said connected object, the method comprising a first periodic measurement of at least one internal signal (SM, SC) representative of said at least one activity of the connected object (2, 3, 4), a first non-cryptographic calculation of at least one activity parameter representative of said at least one activity from said at least one measured internal signal, a comparison between each activity parameter (DTC, CCC) calculated at the end of the first calculation and a predetermined range of instructions for the corresponding parameter (DTR, CCR), and a triggering of at least one safety action if at least one calculated activity parameter (DTC, CCC) at the end of the first calculation is outside said range of instructions (DTR, CCR), wherein the range of instructions of each activity parameter (DTR, CCR) is intended to be updated in a learning phase also implemented by said monitoring device, and wherein the learning phase includes a second periodic measurement, under authorisation of a user of the connected object, of said at least one internal signal (SM, SC) for a duration which is predetermined or configurable by the user, a second non-cryptographic calculation of said at least one activity parameter from said at least one internal signal measured by said second periodic measurement during said duration, and an update of the range of setpoints of the corresponding activity parameter (DTR, CCR) from each calculated activity parameter (NDTC, NCCC) at the end of the second calculation. a first periodic measurement of at least one internal signal (SM, SC) representative of said at least one activity of the connected object (2, 3, 4), a first non-cryptographic calculation of at least one activity parameter representative of said at least one activity from said at least one measured internal signal, a comparison between each activity parameter (DTC, CCC) calculated at the end of the first calculation and a predetermined range of instructions for the corresponding parameter (DTR, CCR), and a triggering of at least one safety action if at least one calculated activity parameter (DTC, CCC) at the end of the first calculation is outside said range of instructions (DTR, CCR), wherein the range of instructions of each activity parameter (DTR, CCR) is intended to be updated in a learning phase also implemented by said monitoring device, and wherein the learning phase includes a second periodic measurement, under authorisation of a user of the connected object, of said at least one internal signal (SM, SC) for a duration which is predetermined or configurable by the user, a second non-cryptographic calculation of said at least one activity parameter from said at least one internal signal measured by said second periodic measurement during said duration, and an update of the range of setpoints of the corresponding activity parameter (DTR, CCR) from each calculated activity parameter (NDTC, NCCC) at the end of the second calculation.