mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing feedback to a user for adjusting sleep pattern of the user, the method comprising: - collecting a set of information related to the user; - receiving a set of measurement data related to the user from a wearable electronic device; - defining circadian rhythm and duration of sleep of the user; - determining sleep scores for a predefined number of days, the predefined number of days being a minimum of 7 days, wherein a sleep score is determined for each of the predefined number of days from the collected set of information, the set of measurement data, the circadian rhythm and the duration of sleep of the user, and associating each sleep score with a corresponding go-to-bed time or time of falling asleep of the user, wherein the go-to-bed time or time of falling asleep are determined based on the measurement data; - analysing, by a processing module, the sleep scores and associated go-to-bed time and/or time of falling asleep of the user to determine a duration of an optimum bedtime window for the user, wherein the optimum bedtime window is determined based on variation of the go-to-bed time of the user in the predefined number of days; and - providing feedback to the user based on the analysed sleep scores and the optimum bedtime window, wherein the feedback comprises instructions to the user related to adjusting the sleep pattern. - collecting a set of information related to the user; - receiving a set of measurement data related to the user from a wearable electronic device; - defining circadian rhythm and duration of sleep of the user; - determining sleep scores for a predefined number of days, the predefined number of days being a minimum of 7 days, wherein a sleep score is determined for each of the predefined number of days from the collected set of information, the set of measurement data, the circadian rhythm and the duration of sleep of the user, and associating each sleep score with a corresponding go-to-bed time or time of falling asleep of the user, wherein the go-to-bed time or time of falling asleep are determined based on the measurement data; - analysing, by a processing module, the sleep scores and associated go-to-bed time and/or time of falling asleep of the user to determine a duration of an optimum bedtime window for the user, wherein the optimum bedtime window is determined based on variation of the go-to-bed time of the user in the predefined number of days; and - providing feedback to the user based on the analysed sleep scores and the optimum bedtime window, wherein the feedback comprises instructions to the user related to adjusting the sleep pattern.
A method for releasing an internet protocol (IP) address by a packet data network gateway (PGW) in a mobile communication system, the method comprising: allocating, by the PGW, an internet protocol version 4 (IPv4) address and an internet protocol version 6 (IPv6) address to a user equipment (UE) to activate a packet data network (PDN) connection between the UE and the PGW; receiving, by the PGW, a dynamic host configuration protocol (DHCP) release message from a serving gateway (SGW); transmitting, by the PGW, to the SGW, a binding revocation message including information indicating release of the IPv4 address with the PDN connection between the UE and the PGW remaining active; and receiving, by the PGW, a binding revocation acknowledge message to acknowledge release of the IPv4 address from the SGW. allocating, by the PGW, an internet protocol version 4 (IPv4) address and an internet protocol version 6 (IPv6) address to a user equipment (UE) to activate a packet data network (PDN) connection between the UE and the PGW; receiving, by the PGW, a dynamic host configuration protocol (DHCP) release message from a serving gateway (SGW); transmitting, by the PGW, to the SGW, a binding revocation message including information indicating release of the IPv4 address with the PDN connection between the UE and the PGW remaining active; and receiving, by the PGW, a binding revocation acknowledge message to acknowledge release of the IPv4 address from the SGW.
A cleaning system for cleaning a floor of a restroom and comprising a wall-coupled cleaning head and a docking site for at least partially housing the cleaning head when not in use, wherein the cleaning head being wall-coupled by being permanently connected to any one of: electrical cables, electrical power, hydraulic and/or pneumatic hoses, hydraulic and/or pneumatic sources, characterized in that the cleaning head being arranged to communicate via conduits with ports of the docking site for receiving and discharging fluids via such ports during use, for example while moving and cleaning, and wherein the cleaning head comprising a dirt and water vacuum for assisting in discharging liquids and/or fluids during a cleaning operation via the conduits towards the docking site
A method of performing ultrasonic measurements of fluid properties, comprising - exciting ultrasound waves at a first location along an optical fiber in the fluid by means of light from the optical fiber and characterized by - detecting an effect of the ultrasound waves on light reflection in the optical fiber or light propagation through the optical fiber and/or through a further optical fiber in a same packaging as the optical fiber , at a second location along the optical fiber or at the end of the optical fiber or the further optical fiber , characterised in that the method further comprises: - selecting a detection of arrival of a fiber-based propagation mode at said second location, said effect of the ultrasound waves on light propagation being detected from the selected detection; wherein the light from the optical fiber that is used to excite the ultrasound waves is an optical pulse, the detection of arrival of the fiber-based propagation mode at said second location being performed by detecting the effect of the ultrasound waves in a predetermined time range of time delay from the optical pulse, the time range selectively including a travel time needed by ultrasound in a fiber-based ultrasound propagation mode to travel from the first location to the second location. - exciting ultrasound waves at a first location along an optical fiber in the fluid by means of light from the optical fiber and characterized by - detecting an effect of the ultrasound waves on light reflection in the optical fiber or light propagation through the optical fiber and/or through a further optical fiber in a same packaging as the optical fiber , at a second location along the optical fiber or at the end of the optical fiber or the further optical fiber , characterised in that the method further comprises: - selecting a detection of arrival of a fiber-based propagation mode at said second location, said effect of the ultrasound waves on light propagation being detected from the selected detection;
Rescue tool comprising a drive system which is provided inside a housing and which is configured and suitable for actuating a linear displacement of an implement drive member, wherein the drive system is connected for axial rotation to a rotation shaft of an energizable drive source , wherein the rotation shaft of the drive source is coupled for force transmission to an axially rotatable spindle via a mechanical reduction transmission, wherein a linearly movable drive body is coupled for force transmission to the spindle and is configured and suitable for converting an axial rotation of the spindle to a linear translation of the implement drive member, and wherein the drive body is coupled for force transmission to the implement drive member, wherein the spindle is coupled rotatably to the housing by means of an axial bearing assembly , and wherein the drive body comprises a planetary roller of a planetary roller-spindle mechanism , which planetary roller is suspended for axial rotation in rolling contact with the spindle and is arranged over the spindle , wherein said transmission between said rotation shaft of said drive source and said axially rotatable spindle is a linear transmission, wherein said spindle lies substantially in line with said rotation shaft of said drive source , wherein said mechanical reduction transmission comprises at least one planet wheel mechanism, wherein a central driven gear of the planet wheel mechanism of the mechanical reduction transmission engages on at least one planet gear arranged there around, and wherein said mechanical reduction transmission is coupled rotatably to said axial bearing assembly , characterized in that said drive source comprises at least a first energizable motor to drive the central gear of the planet wheel mechanism and having a first transmission ratio relative to said spindle, and a second energizable motor driving an outer ring gear of the planet wheel mechanism and having a second transmission relative to said spindle, and wherein said first transmission ratio is different from said second transmission ratio.
Carrier arrangement for carrying an electronics housing , comprising - a base , a carrier element which can be locked to the base , a plug-in location for fitting the electronics housing , and - a locking element which is arranged in an adjustable manner on the carrier element and which locks the base to the carrier element in a locked position and, with the electronics housing fitted at the plug-in location , is blocked in the locked position in such a way that the locking element cannot be moved out of the locked position, characterized in that the locking element is designed to be adjusted from an unlocked position, in which the locking element does not lock the base to the carrier element , to the locked position when the electronics housing is fitted at the plug-in location . - a base , a carrier element which can be locked to the base , a plug-in location for fitting the electronics housing , and a carrier element which can be locked to the base , a plug-in location for fitting the electronics housing , and - a locking element which is arranged in an adjustable manner on the carrier element and which locks the base to the carrier element in a locked position and, with the electronics housing fitted at the plug-in location , is blocked in the locked position in such a way that the locking element cannot be moved out of the locked position, characterized in that the locking element is designed to be adjusted from an unlocked position, in which the locking element does not lock the base to the carrier element , to the locked position when the electronics housing is fitted at the plug-in location .
A method of operating a network element in a wireless communications network, the method comprising: identifying, by at least a network element, a channel state information reference signal (CSI-RS) that is orthogonal to CSI-RSs transmitted by each of a macro cell as a first network cell and a set of neighbor cells that interfere with the macro cell, wherein the macro cell has a coverage containing a coverage of a small cell as a second network cell, wherein the network element is associated with the small cell; and transmitting, by the network element, the identified CSI-RS; wherein the set of interfering neighbor cells is a subset of a CSI-RS network cell group, and the CSI-RS transmitted by the network element is the same as a CSI-RS transmitted by a network cell that is a member of the CSI-RS network cell group, but not a member of the set of interfering neighbor cells, wherein hopping of a CSI-RS port resource mapping is coordinated among cells within the CSI-RS network cell group such that different cells use mutually exclusive CSI-RS port resources, wherein the same hopping sequence is used for all cells within the CSI-RS network cell group, with each cell being offset by a different and predefined offset value that corresponds to a logical ID associated with the cell, wherein different cells within the CSI-RS network cell group have different logical IDs, wherein each cell in the CSI-RS network cell group is configured to mute the transmission of Physical Downlink Shared Channel Resource Elements (PDSCH REs) that coincide with the CSI-RS REs transmitted by other cells within the CSI-RS network cell group.
A method for preparing a homogenous catalyst for use in preparing a linear alpha olefin, comprising: preparing a first pre-catalyst solution by mixing a chromium source and a ligand in a first solvent, wherein the first pre-catalyst solution is stored in a first vessel; preparing a second pre-catalyst solution by mixing an organoaluminum compound and a modifier in a second solvent, wherein the second pre-catalyst solution is stored in a second vessel; and simultaneously feeding the first pre-catalyst solution and the second pre-catalyst solution directly into a reaction vessel, wherein the reaction vessel includes a third solvent; wherein the first pre-catalyst solution and the second pre-catalyst solution are separately and directly fed into a reaction vessel, and wherein premixing of the first solution and the second solution is by using the velocity of injection of the first solution and the second solution into the reaction vessel. preparing a first pre-catalyst solution by mixing a chromium source and a ligand in a first solvent, wherein the first pre-catalyst solution is stored in a first vessel; preparing a second pre-catalyst solution by mixing an organoaluminum compound and a modifier in a second solvent, wherein the second pre-catalyst solution is stored in a second vessel; and simultaneously feeding the first pre-catalyst solution and the second pre-catalyst solution directly into a reaction vessel, wherein the reaction vessel includes a third solvent; wherein the first pre-catalyst solution and the second pre-catalyst solution are separately and directly fed into a reaction vessel, and wherein premixing of the first solution and the second solution is by using the velocity of injection of the first solution and the second solution into the reaction vessel.
In vitro diagnostic method of Attention Deficit Hyperactivity Disorder (ADHD) CHARACTERIZED in that it comprises: • detecting from a peripheral blood sample the variation in normal serum levels in relation to the mean of a healthy reference population of the following lipids: Ceramide C16:0, Ceramide C24:0, Deoxy dihydro-ceramide C24:1 and Sphinganin 1-phosphate, docosahexaenoic acid (DHA) and eicosapentaenoic acid (EPA); and • determining if there is a variation in the absolute values for Deoxy dihydro-ceramide C24:1 and Sphinganin 1-P, respect to the normal values obtained in the healthy population control group; • determining if there is a variation in the ratio Ceramide C24:0/Ceramide C16:0 (C24:0/C16:0) and DHA/EPA, respect to the normal values obtained in the healthy population control group; and • classifying the sample as positive for ADHD if there is: ∘ an increase in the absolute value of Deoxy dihydro-ceramide C24:1; and/or ∘ a decrease in the absolute value for Sphinganin 1-P; and/or ∘ a decrease in the value of the C24:0/C16:0 ratio and/or DHA/EPA, with respect to the normal values obtained in the healthy population control group. • detecting from a peripheral blood sample the variation in normal serum levels in relation to the mean of a healthy reference population of the following lipids: Ceramide C16:0, Ceramide C24:0, Deoxy dihydro-ceramide C24:1 and Sphinganin 1-phosphate, docosahexaenoic acid (DHA) and eicosapentaenoic acid (EPA); and • determining if there is a variation in the absolute values for Deoxy dihydro-ceramide C24:1 and Sphinganin 1-P, respect to the normal values obtained in the healthy population control group; • determining if there is a variation in the ratio Ceramide C24:0/Ceramide C16:0 (C24:0/C16:0) and DHA/EPA, respect to the normal values obtained in the healthy population control group; and • classifying the sample as positive for ADHD if there is: ∘ an increase in the absolute value of Deoxy dihydro-ceramide C24:1; and/or ∘ a decrease in the absolute value for Sphinganin 1-P; and/or ∘ a decrease in the value of the C24:0/C16:0 ratio and/or DHA/EPA, ∘ an increase in the absolute value of Deoxy dihydro-ceramide C24:1; and/or ∘ a decrease in the absolute value for Sphinganin 1-P; and/or ∘ a decrease in the value of the C24:0/C16:0 ratio and/or DHA/EPA,
Battery module , having • at least two battery cells each with at least one safety valve for venting the battery cell , wherein the safety valve of the battery cell is arranged in a manner directed towards a cavity on an end side of the battery cell in each case, wherein • each battery cell has a separate cavity on the safety valve of the battery cell , characterized in that • the cavity is delimited by the battery cell , a sealing element and a membrane , • a portion of the membrane is designed to be opened by an excess pressure in the cavity , • the membrane is arranged on at least two separate cavities , • the membrane has a predetermined rupture point at at least one point , and • the membrane has an electrical circuit , wherein the electrical circuit is designed to be changed by opened predetermined rupture points , as a result of which the opened predetermined rupture point can be electrically determined. • at least two battery cells each with at least one safety valve for venting the battery cell , wherein the safety valve of the battery cell is arranged in a manner directed towards a cavity on an end side of the battery cell in each case, wherein • each battery cell has a separate cavity on the safety valve of the battery cell , characterized in that • the cavity is delimited by the battery cell , a sealing element and a membrane , • a portion of the membrane is designed to be opened by an excess pressure in the cavity , • the membrane is arranged on at least two separate cavities , • the membrane has a predetermined rupture point at at least one point , and • the membrane has an electrical circuit , wherein the electrical circuit is designed to be changed by opened predetermined rupture points , as a result of which the opened predetermined rupture point can be electrically determined.
Detergent composition (F) for domestic or industrial use comprising, as thickener, a self-invertible inverse latex comprising an aqueous phase comprising: a) a crosslinked anionic polyelectrolyte (P) consisting of: - at least one first monomer unit derived from 2-methyl-2-[(1-oxo-2-propenyl)amino]-1-propanesulfonic acid in free acid form or partially or totally salified form; - at least one second monomer unit derived from at least one monomer chosen from the elements of the group consisting of 2-hydroxyethyl acrylate, 2,3-dihydroxypropyl acrylate, 2-hydroxyethyl methacrylate, 2,3-dihydroxypropyl methacrylate, or vinylpyrrolidone; and - at least one monomer unit derived from a polyethylenic crosslinking monomer (AR), b) at least one sequestrant compound (SQ) chosen from the elements of the group consisting of ethylenediaminedisuccinic acid in trisodium salt form, the glutamic acid, N,N-diacetic acid, tetrasodium salt, and the sodium salt of iminosuccinic acid. a) a crosslinked anionic polyelectrolyte (P) consisting of: - at least one first monomer unit derived from 2-methyl-2-[(1-oxo-2-propenyl)amino]-1-propanesulfonic acid in free acid form or partially or totally salified form; - at least one second monomer unit derived from at least one monomer chosen from the elements of the group consisting of 2-hydroxyethyl acrylate, 2,3-dihydroxypropyl acrylate, 2-hydroxyethyl methacrylate, 2,3-dihydroxypropyl methacrylate, or vinylpyrrolidone; and - at least one monomer unit derived from a polyethylenic crosslinking monomer (AR), - at least one first monomer unit derived from 2-methyl-2-[(1-oxo-2-propenyl)amino]-1-propanesulfonic acid in free acid form or partially or totally salified form; - at least one second monomer unit derived from at least one monomer chosen from the elements of the group consisting of 2-hydroxyethyl acrylate, 2,3-dihydroxypropyl acrylate, 2-hydroxyethyl methacrylate, 2,3-dihydroxypropyl methacrylate, or vinylpyrrolidone; and - at least one monomer unit derived from a polyethylenic crosslinking monomer (AR), b) at least one sequestrant compound (SQ) chosen from the elements of the group consisting of ethylenediaminedisuccinic acid in trisodium salt form, the glutamic acid, N,N-diacetic acid, tetrasodium salt, and the sodium salt of iminosuccinic acid.
Process for the degradation of cigarette butts, wherein the cigarette butt is composed by paper, ash residues and tobacco residues, cellulose acetate (CA), nicotine and tar, to recover pure cellulose acetate (CA) comprising the following steps a) soaking cigarette butts in a solution of at least one polar aprotic solvent having dielectric constant higher then 10 for a time sufficient to obtain the complete dissolution of cellulose acetate (CA) and nicotine, to obtain a precipitate of paper, ash residues and tobacco residues and a solution of cellulose acetate (CA) nicotine and tar; b) removal of the precipitate of paper, ash residues and tobacco residues as obtained in step a) by filtration; c) drying the precipitate as removed in step b) to remove the residual solvent; d) adding a polar protic anti-solvent to the solution of cellulose acetate (CA) nicotine and tar as obtained in step a) to obtain a precipitate of pure cellulose acetate (CA) as final product together with a liquid residue made of polar aprotic solvent, polar protic anti-solvent, nicotine and tar; e) filtration of the precipitate of pure cellulose acetate (CA) as obtained in step d) to separate from the liquid residue of polar aprotic solvent, polar protic anti-solvent, nicotine and tar; f) distillation of the liquid residue of polar aprotic solvent, polar protic anti-solvent, nicotine and tar as obtained in step e) to obtain a of polar aprotic solvent reusable in a further cycle, as further final product, and a waste residue made of nicotine and tar concentrate in polar protic anti-solvent wherein the aprotic polar solvent is acetone. a) soaking cigarette butts in a solution of at least one polar aprotic solvent having dielectric constant higher then 10 for a time sufficient to obtain the complete dissolution of cellulose acetate (CA) and nicotine, to obtain a precipitate of paper, ash residues and tobacco residues and a solution of cellulose acetate (CA) nicotine and tar; b) removal of the precipitate of paper, ash residues and tobacco residues as obtained in step a) by filtration; c) drying the precipitate as removed in step b) to remove the residual solvent; d) adding a polar protic anti-solvent to the solution of cellulose acetate (CA) nicotine and tar as obtained in step a) to obtain a precipitate of pure cellulose acetate (CA) as final product together with a liquid residue made of polar aprotic solvent, polar protic anti-solvent, nicotine and tar; e) filtration of the precipitate of pure cellulose acetate (CA) as obtained in step d) to separate from the liquid residue of polar aprotic solvent, polar protic anti-solvent, nicotine and tar; f) distillation of the liquid residue of polar aprotic solvent, polar protic anti-solvent, nicotine and tar as obtained in step e) to obtain a of polar aprotic solvent reusable in a further cycle, as further final product, and a waste residue made of nicotine and tar concentrate in polar protic anti-solvent wherein the aprotic polar solvent is acetone.