mhurhangee/ep-ind-claims huggingface dataset:
A method of downmixing a plurality of input audio signals containing input data into at least one output audio signal, wherein maximal downmix coefficients are predefined, at least one in-range condition on said at least one output signal is predefined and the input signals are partitioned into predefined subgroups, the in-range condition on said at least one output signal being an upper bound on the at least one output signal or a lower bound on the at least one output signal or a requirement for the at least one output signal to remain in an interval having a lower and an upper bound, the method comprising: determining downmix coefficients as products of said maximal downmix coefficients and a limiting factor which is common within each subgroup in order to satisfy, in view of the input data, an in-range condition on said at least one output signal; and applying the downmix coefficients to downmix the plurality of input audio signals into at least two output audio signals corresponding to spatially related channels, wherein the downmix coefficients are determined as products of said maximal downmix coefficients and the limiting factor, the limiting factor being common within each subgroup and all output signals, in order to jointly satisfy the in-range condition on each of said at least two spatially related output signals, wherein said determining downmix coefficients includes the substeps of: determining, for each of the output signals to which the input signals in a subgroup contribute, a downmix coefficient as a product of the maximal downmix coefficient and a preliminary limiting factor; and determining the limiting factor common within the subgroup by selecting the minimum of the preliminary limiting factors. determining downmix coefficients as products of said maximal downmix coefficients and a limiting factor which is common within each subgroup in order to satisfy, in view of the input data, an in-range condition on said at least one output signal; and applying the downmix coefficients to downmix the plurality of input audio signals into at least two output audio signals corresponding to spatially related channels, wherein the downmix coefficients are determined as products of said maximal downmix coefficients and the limiting factor, the limiting factor being common within each subgroup and all output signals, in order to jointly satisfy the in-range condition on each of said at least two spatially related output signals, determining, for each of the output signals to which the input signals in a subgroup contribute, a downmix coefficient as a product of the maximal downmix coefficient and a preliminary limiting factor; and determining the limiting factor common within the subgroup by selecting the minimum of the preliminary limiting factors.
A method of manufacturing a connector device suitable for making an inter or intra static electrical energy converter(s) connection, said device comprising at least two flat conductors and at least one insulating material (10, 11, 12, 15), said method being remarkable in that: ● each flat conductor is prepared individually, ● a layer of enamel varnish in liquid form of less than the desired final thickness is applied to each conductor, ● the cross-linking of the enamel vanish layer is carried out, ● a new coat of enamel varnish in liquid form is applied and cross-linked until the chosen thickness is reached, ● the conductors, coated with varnish, of said connector device are assembled by means of a template and connecting means. ● each flat conductor is prepared individually, ● a layer of enamel varnish in liquid form of less than the desired final thickness is applied to each conductor, ● the cross-linking of the enamel vanish layer is carried out, ● a new coat of enamel varnish in liquid form is applied and cross-linked until the chosen thickness is reached, ● the conductors, coated with varnish, of said connector device are assembled by means of a template and connecting means.
Head (500, 900) for a sensor comprising two sections of optical fibre (11, 12) for propagating infrared light at at least one infrared wavelength and generating evanescent waves to the outside in order to detect infrared signatures of an external medium, said head (500, 900) comprising: - an optical fibre forming a curved part intended to connect the two sections of fibre (11, 12) and to come into contact with the external medium in order to detect the infrared signatures interfering with the propagation of the evanescent waves propagating along the fibre, and - means (504, 506) intended to protect the curved part against external mechanical stresses, while guaranteeing a contact area between the external medium and said curved part, - said means (504, 506) intended to protect the curved part consisting of a first plate and a second plate between which said curved part is placed, said first plate comprising a flow conduit intended to allow the flow of the liquid external medium between the plates (504, 506), - said head (500, 900) being characterized in that said second plate comprises a stud an end of which is against said second plate and an end is situated facing the opening of the flow conduit and away from the first plate, and in that said curved part of the fibre comprises a turn wound around the stud. - an optical fibre forming a curved part intended to connect the two sections of fibre (11, 12) and to come into contact with the external medium in order to detect the infrared signatures interfering with the propagation of the evanescent waves propagating along the fibre, and - means (504, 506) intended to protect the curved part against external mechanical stresses, while guaranteeing a contact area between the external medium and said curved part, - said means (504, 506) intended to protect the curved part consisting of a first plate and a second plate between which said curved part is placed, said first plate comprising a flow conduit intended to allow the flow of the liquid external medium between the plates (504, 506), - said head (500, 900) being characterized in that said second plate comprises a stud an end of which is against said second plate and an end is situated facing the opening of the flow conduit and away from the first plate, and in that said curved part of the fibre comprises a turn wound around the stud.
A method, comprising: obtaining, by a device, a heartbeat profile of a current subject, the heartbeat profile being based on PPG data associated with a set of wavelength channels; determining, by the device, a global model including a plurality of classes, wherein each class, of the plurality of classes, corresponds to one of a plurality of heartbeat profiles associated with a plurality of local subjects, each heartbeat profile of the plurality of heartbeat profiles is a heartbeat profile for one of the plurality of local subjects that is collected at a known blood pressure level, BPL,; selecting, by the device, at least two classes, of the plurality of classes, to be used for generating a BPL estimation model for the current subject, wherein the at least two classes are associated with a local subject, of the plurality of local subjects, and include a class that is a closest class to the current subject based on the heartbeat profile of the current subject; generating, by the device, the BPL estimation model based on the at least two classes; and determining, by the device, a BPL estimation for the current subject based on the heartbeat profile of the current subject and using the BPL estimation model. obtaining, by a device, a heartbeat profile of a current subject, the heartbeat profile being based on PPG data associated with a set of wavelength channels; determining, by the device, a global model including a plurality of classes, wherein each class, of the plurality of classes, corresponds to one of a plurality of heartbeat profiles associated with a plurality of local subjects, each heartbeat profile of the plurality of heartbeat profiles is a heartbeat profile for one of the plurality of local subjects that is collected at a known blood pressure level, BPL,; selecting, by the device, at least two classes, of the plurality of classes, to be used for generating a BPL estimation model for the current subject, wherein the at least two classes are associated with a local subject, of the plurality of local subjects, and include a class that is a closest class to the current subject based on the heartbeat profile of the current subject; generating, by the device, the BPL estimation model based on the at least two classes; and determining, by the device, a BPL estimation for the current subject based on the heartbeat profile of the current subject and using the BPL estimation model.
Extrudable (per)fluoroelastomer compositions comprising crosslinkable (per)fluoroelastomers having at least two glass transition temperatures Tg on DSC analysis, measured according to ASTM D3418, at least one melting peak on DSC analysis with a ΔH (enthalpy) of second melting of between 0.3 and 5.5 J/g, measured according to ASTM D3417, a bimodal molecular weight distribution such that the ratio Mn 1 /Mn 2 is between 10 and 30 wherein Mn 1 represents the number-average molecular weight of the distribution of the high molecular weight fluoroelastomer and Mn 2 represents the number-average molecular weight of the distribution of the low molecular weight fluoroelastomer, determined by GPC.
A gear mechanism comprising: a gear housing (23, 104) including a passage (24, 106) formed therein; a gear positioned in the passage (24, 106); a signal transmission medium positioned in the passage (24, 106) adjacent the gear; and a partition (60, 61, 62) inserted into the passage (24, 106) to prevent contact between the signal transmission medium and the gear; wherein the partition (60, 61, 62) divides the passage (24, 106) into a first portion (24a, 106a) in which the gear resides, and a second portion (24b, 106b) adjacent the first portion (24a, 106a) through which the signal transmission medium is routed; characterized in that the gear, the signal transmission medium, and the partition (60, 61, 62) all extend in an axial direction substantially parallel to one another. a gear housing (23, 104) including a passage (24, 106) formed therein; a gear positioned in the passage (24, 106); a signal transmission medium positioned in the passage (24, 106) adjacent the gear; and a partition (60, 61, 62) inserted into the passage (24, 106) to prevent contact between the signal transmission medium and the gear; wherein the partition (60, 61, 62) divides the passage (24, 106) into a first portion (24a, 106a) in which the gear resides, and a second portion (24b, 106b) adjacent the first portion (24a, 106a) through which the signal transmission medium is routed; characterized in that the gear, the signal transmission medium, and the partition (60, 61, 62) all extend in an axial direction substantially parallel to one another.
A method of quantifying cyber-security risks in a control system including a plurality of networked devices in a network, comprising: providing a processor and a memory device storing inter-device dependencies based on an interconnectivity between said plurality of networked devices, a vulnerability database that includes quantified individual cyber risks (quantified individual risks) for each of said plurality of networked devices, and a dynamic quantification of risk, DOR, algorithm, said processor running said DQR algorithm and implementing: receiving observed cyber behavior for said plurality of networked devices during operation of said network; responsive to said observed cyber behavior, changing ones of said quantified individual risks to generate at least one modified quantified individual risk, and using said inter-device dependencies for a first of said plurality of networked devices referred to as first device, and said quantified individual risk for at least one other of said plurality of networked devices reflecting said modified quantified individual risk, dynamically modifying said quantified individual risk for said first device to generate an inter-device modified quantified individual risk. receiving observed cyber behavior for said plurality of networked devices during operation of said network; responsive to said observed cyber behavior, changing ones of said quantified individual risks to generate at least one modified quantified individual risk, and using said inter-device dependencies for a first of said plurality of networked devices referred to as first device, and said quantified individual risk for at least one other of said plurality of networked devices reflecting said modified quantified individual risk, dynamically modifying said quantified individual risk for said first device to generate an inter-device modified quantified individual risk.
A surfactant-containing foam of which the liquid phase has a yield point, wherein - the yield point of the liquid phase is at least 0.1 Pa; - the liquid phase contains 2 to 40 wt.% surfactant; - the liquid phase contains 20 to 98 wt.% water; - the liquid phase having a yield point contains 0.5 to 10 wt.% of an inorganic salt and 0.5 to 5 wt.% of a co-surfactant selected from the group consisting of alkoxylated C 8 -C 18 fatty alcohols having a degree of alkoxylation of ≤ 3, aliphatic C 6 -C 14 alcohols, aromatic C 6 -C 14 alcohols, aliphatic C 6 -C 12 dialcohols, monoglycerides of C 12 -C 18 fatty acids, monoglycerol ethers of C 8 -C 18 fatty alcohols, and mixtures thereof. - the yield point of the liquid phase is at least 0.1 Pa; - the liquid phase contains 2 to 40 wt.% surfactant; - the liquid phase contains 20 to 98 wt.% water; - the liquid phase having a yield point contains 0.5 to 10 wt.% of an inorganic salt and 0.5 to 5 wt.% of a co-surfactant selected from the group consisting of alkoxylated C 8 -C 18 fatty alcohols having a degree of alkoxylation of ≤ 3, aliphatic C 6 -C 14 alcohols, aromatic C 6 -C 14 alcohols, aliphatic C 6 -C 12 dialcohols, monoglycerides of C 12 -C 18 fatty acids, monoglycerol ethers of C 8 -C 18 fatty alcohols, and mixtures thereof.
An ice making assembly for forming ice using refrigerant capable of transitioning between liquid and gaseous states, the ice maker comprising: a first refrigeration circuit comprising a compressor, a condenser, a hot gas valve, an expansion device and interconnecting lines therefore wherein the refrigerant is approximately 100 to 300 grams of hydrocarbon refrigerant; a second refrigeration circuit comprising a compressor, a condenser, a hot gas valve, an expansion device and interconnecting lines therefore wherein the refrigerant is also approximately 100 to 300 grams of hydrocarbon refrigerant; a single, shared evaporator assembly comprising: a first refrigerant tubing in fluid communication with the first refrigeration circuit such that the refrigerant may cycle through the first refrigerant tubing and the first refrigeration circuit; a second refrigerant tubing in fluid communication with the second refrigeration circuit such that the refrigerant may cycle through the second refrigerant tubing and the second refrigeration circuit; and a freeze plate thermally coupled to the first and second refrigerant tubing; and a water system for supplying water to the freeze plate; wherein the first and second refrigerant tubings are each formed in a serpentine shape and the two serpentine-shaped tubing sections during harvest provide an even distribution of heat load. a first refrigeration circuit comprising a compressor, a condenser, a hot gas valve, an expansion device and interconnecting lines therefore wherein the refrigerant is approximately 100 to 300 grams of hydrocarbon refrigerant; a second refrigeration circuit comprising a compressor, a condenser, a hot gas valve, an expansion device and interconnecting lines therefore wherein the refrigerant is also approximately 100 to 300 grams of hydrocarbon refrigerant; a single, shared evaporator assembly comprising: a first refrigerant tubing in fluid communication with the first refrigeration circuit such that the refrigerant may cycle through the first refrigerant tubing and the first refrigeration circuit; a second refrigerant tubing in fluid communication with the second refrigeration circuit such that the refrigerant may cycle through the second refrigerant tubing and the second refrigeration circuit; and a freeze plate thermally coupled to the first and second refrigerant tubing; and a first refrigerant tubing in fluid communication with the first refrigeration circuit such that the refrigerant may cycle through the first refrigerant tubing and the first refrigeration circuit; a second refrigerant tubing in fluid communication with the second refrigeration circuit such that the refrigerant may cycle through the second refrigerant tubing and the second refrigeration circuit; and a freeze plate thermally coupled to the first and second refrigerant tubing; and a water system for supplying water to the freeze plate;
Armour for dissipating energy associated with an impacting projectile, the armour including an impact absorption layer supported by a backing, the impact absorption layer including: a plurality of substantially rigid macroscopic particles arranged in a regular grid in a spaced relationship relative to one another; and an at least partially flexible matrix interposed between the plurality of macroscopic particles; characterized in that the matrix is impregnated with substantially rigid microscopic particles which are substantially encapsulated by the matrix so as to flexibly locate a random cloud of the microscopic particles between each of the macroscopic particles such that movement of at least one of the macroscopic particles by the impacting projectile is at least partially transferred to an adjacent at least one of the macroscopic particles by the random cloud microscopic particles thereby assisting to dissipate the impact energy. a plurality of substantially rigid macroscopic particles arranged in a regular grid in a spaced relationship relative to one another; and an at least partially flexible matrix interposed between the plurality of macroscopic particles; characterized in that the matrix is impregnated with substantially rigid microscopic particles which are substantially encapsulated by the matrix so as to flexibly locate a random cloud of the microscopic particles between each of the macroscopic particles such that movement of at least one of the macroscopic particles by the impacting projectile is at least partially transferred to an adjacent at least one of the macroscopic particles by the random cloud microscopic particles thereby assisting to dissipate the impact energy.
A system for wall to wall connection for precast shear walls (50, 60), the system comprising: a plurality of horizontal and vertical reinforcement bars configured within the precast shear wall (50, 60), the reinforcement bars provided with spacing there between; a plurality of connecting tubes fixed between the spacing provided between the reinforcement bars; a plurality of openings provided between the plurality of connecting tubes; a plurality of grout tubes fixed above the plurality of openings in order to grout the openings after completing confection of the shear walls (50, 60); a plurality of connecting bars capable of being inserted within the connecting tubes of the precast shear wall (50, 60), when erected, a connecting device inserted through the openings to grip the connecting bars; and a driving device to supply power to the drive for causing rotation of the drive and thereby sending the connecting bar in a translational motion from the first shear wall to the second shear wall. a plurality of horizontal and vertical reinforcement bars configured within the precast shear wall (50, 60), the reinforcement bars provided with spacing there between; a plurality of connecting tubes fixed between the spacing provided between the reinforcement bars; a plurality of openings provided between the plurality of connecting tubes; a plurality of grout tubes fixed above the plurality of openings in order to grout the openings after completing confection of the shear walls (50, 60); a plurality of connecting bars capable of being inserted within the connecting tubes of the precast shear wall (50, 60), when erected, a connecting device inserted through the openings to grip the connecting bars; and a driving device to supply power to the drive for causing rotation of the drive and thereby sending the connecting bar in a translational motion from the first shear wall to the second shear wall.
A liquid storage container comprising: a receptacle (1 E) formed with an upper opening, and a closure for closing the upper opening; and a liquid contained in the receptacle (1 E); wherein the receptacle is provided with an adhering liquid mover (1 Eb; 1 Eb') for moving the liquid, which adheres on a peripheral portion of the upper opening or on an inner surface of the receptacle (1 E), toward a bottom of the receptacle, wherein the closure comprises a sheet, and wherein the adhering liquid mover (1 Eb; 1 Eb') comprises a notch formed on the inner surface of the receptacle in a manner such that a lower end of the adhering liquid mover is positioned below a surface of the liquid contained in the receptacle. a receptacle (1 E) formed with an upper opening, and a closure for closing the upper opening; and a liquid contained in the receptacle (1 E); wherein the receptacle is provided with an adhering liquid mover (1 Eb; 1 Eb') for moving the liquid, which adheres on a peripheral portion of the upper opening or on an inner surface of the receptacle (1 E), toward a bottom of the receptacle, wherein the closure comprises a sheet, and wherein the adhering liquid mover (1 Eb; 1 Eb') comprises a notch formed on the inner surface of the receptacle in a manner such that a lower end of the adhering liquid mover is positioned below a surface of the liquid contained in the receptacle.
Method for filtering a data packet by means of a network filter device between a first network and a second network, having the following steps: - multiplication of the data packet by a multiplication unit to produce a first data packet and at least one second data packet, wherein a content of the data packet is produced identically in the first data packet and at least in the second data packet; - forwarding of the first data packet to a first filter device and at least of the second data packet to a second filter device; - checking of the first data packet by the first filter device and at least of the second data packet by the second filter device according to respective filter specifications (K1, K2); - production and transmission of a first filter result by the first filter device and at least of a second filter result by the second filter device to a comparison unit; - blocking of forwarding of the data packet between the first network and the second network if the comparison unit identifies, on the basis of the first filter result and at least the second filter result, a comparison result that deviates from a tolerance range. - multiplication of the data packet by a multiplication unit to produce a first data packet and at least one second data packet, wherein a content of the data packet is produced identically in the first data packet and at least in the second data packet; - forwarding of the first data packet to a first filter device and at least of the second data packet to a second filter device; - checking of the first data packet by the first filter device and at least of the second data packet by the second filter device according to respective filter specifications (K1, K2); - production and transmission of a first filter result by the first filter device and at least of a second filter result by the second filter device to a comparison unit; - blocking of forwarding of the data packet between the first network and the second network if the comparison unit identifies, on the basis of the first filter result and at least the second filter result, a comparison result that deviates from a tolerance range.