mhurhangee/ep-ind-claims huggingface dataset:
A bead-based magnetic assay system for detecting a complex including an analyte based on optically detected magnetic resonance (ODMR), the system comprising: (a) a plurality of functionalized beads of a first type, which are magnetic functionalized beads and are functionalized to include a first moiety that associates with an analyte under suitable conditions; (b) a plurality of functionalized beads of a second type, which are functionalized to include a second moiety that associates with the analyte under suitable conditions; (c) a substrate including at least one ODMR center; (d) a light source configured to generate incident light that excites electrons within the at least one ODMR center from a ground state to an excited state; (e) a magnet for applying a bias magnetic field on a complex disposed over the at least one ODMR center, the complex including one of the first type of functionalized bead, the analyte, and one of the second type of functionalized bead; (f) a microwave source configured to generate a microwave field incident on the at least one ODMR center, the microwave source being further configured to generate the microwave field with frequencies which correspond to ground state transitions in the at least one ODMR center, in which the at least one ODMR center produces emitted light when illuminated by the incident light, characteristics of the emitted light being influenced by the microwave field and by the magnetic functionalized bead associated with the analyte in the complex; and (g) an optical photodetector that detects light emitted by the at least one ODMR center. (a) a plurality of functionalized beads of a first type, which are magnetic functionalized beads and are functionalized to include a first moiety that associates with an analyte under suitable conditions; (b) a plurality of functionalized beads of a second type, which are functionalized to include a second moiety that associates with the analyte under suitable conditions; (c) a substrate including at least one ODMR center; (d) a light source configured to generate incident light that excites electrons within the at least one ODMR center from a ground state to an excited state; (e) a magnet for applying a bias magnetic field on a complex disposed over the at least one ODMR center, the complex including one of the first type of functionalized bead, the analyte, and one of the second type of functionalized bead; (f) a microwave source configured to generate a microwave field incident on the at least one ODMR center, the microwave source being further configured to generate the microwave field with frequencies which correspond to ground state transitions in the at least one ODMR center, in which the at least one ODMR center produces emitted light when illuminated by the incident light, characteristics of the emitted light being influenced by the microwave field and by the magnetic functionalized bead associated with the analyte in the complex; and (g) an optical photodetector that detects light emitted by the at least one ODMR center.
A sheet-fed printing press (1000; 1000*) adapted to carry out recto-verso printing of individual sheets, in particular for the production of security documents such as banknotes, comprising one or more printing units (200; 200.1, 200.2; 200.1*, 200.2*) each adapted to carry out simultaneous recto-verso printing of the sheets, each printing unit (200; 200.1, 200.2; 200.1*, 200.2*) including two printing cylinders (105, 106) cooperating with one another and forming a printing nip where both sides of the sheets are simultaneously printed, a first printing cylinder of the two printing cylinders (105, 106) collecting ink patterns from at least two plate cylinders (15A, 15B) associated with the first printing cylinder and a second printing cylinder of the two printing cylinders (105, 106) collecting ink patterns from at least two plate cylinders (16A, 16B) associated with the second printing cylinder, and wherein the two printing cylinders (105, 106) are located one above the other such that the sheets travel laterally through each printing unit (200; 200.1, 200.2; 200.1*, 200.2*) from a first lateral side (201a; 201a*) located upstream of the printing nip to a second lateral side (201b; 201b*) opposite to the first lateral side (201a; 201a*) and located downstream of the printing nip, wherein the two printing cylinders (105, 106) comprise a first printing cylinder acting as sheet-conveying cylinder, wherein the sheets are transferred to the first printing cylinder by means of a first sheet transfer cylinder cooperating with the first printing cylinder upstream of the printing nip, wherein the sheets are taken away from the first printing cylinder by means of a second sheet transfer cylinder cooperating with the first printing cylinder downstream of the printing nip, characterized in that each printing unit (200; 200.1, 200.2; 200.1*, 200.2*) comprises a pair of side frames (201; 201*) supporting at least the two printing cylinders (105, 106) as well as the first and second sheet transfer cylinders (95, 110) and in that the sheet-fed printing press (1000; 1000*) is comprising at least two of said printing units (200.1, 200.2; 200.1*, 200.2*) that are located one after the other, wherein an uneven number of sheet transfer cylinders (110, 120, 95) is provided downstream of the printing nip of a first one (200.1; 200.1*) of the at least two printing units (200.1, 200.2; 200.1*, 200.2*) and upstream of the printing nip of a second one (200.2; 200.2*) of the at least two printing units (200.1, 200.2; 200.1*, 200.2*) to transfer the sheets from the first printing unit (200.1; 200.1*) to the second printing unit (200.2; 200.2*) and in that at least part of the uneven number of sheet transfer cylinders (110, 120, 95) is supported in an intermediate frame interposed between the second lateral side (201b*) of the first printing unit (200.1*) and the first lateral side (201a*) of the second printing unit (200.2*).
An ignition plug comprising: a main fitting having a cylindrical threaded part for accommodation in an engine; a center electrode and a ground electrode (106, 106A; 224) for spark discharge at a discharge gap between the center electrode and the ground electrode (106, 106A; 224); a coaxial electromagnetic wave transmission line provided with a center wire (112; 224) and an outside conductor, wherein the center wire (112; 224) is configured to pass completely through the main fitting and wherein the outside conductor is electrically integrated with the ground electrode (106, 106A) and forms said main fitting; and an electromagnetic radiation antenna (112A; 224A) that is electrically integrated with the center wire (112; 224) at a discharge-gap end of the center wire, and has a profile that defines part of a sphere or an arc including a plurality of locations substantially equidistant from the center electrode, and is configured so as to be situated to the inward side of the thread of the threaded part of the main fitting when viewed from the discharge-gap end. a main fitting having a cylindrical threaded part for accommodation in an engine; a center electrode and a ground electrode (106, 106A; 224) for spark discharge at a discharge gap between the center electrode and the ground electrode (106, 106A; 224); a coaxial electromagnetic wave transmission line provided with a center wire (112; 224) and an outside conductor, wherein the center wire (112; 224) is configured to pass completely through the main fitting and wherein the outside conductor is electrically integrated with the ground electrode (106, 106A) and forms said main fitting; and an electromagnetic radiation antenna (112A; 224A) that is electrically integrated with the center wire (112; 224) at a discharge-gap end of the center wire, and has a profile that defines part of a sphere or an arc including a plurality of locations substantially equidistant from the center electrode, and is configured so as to be situated to the inward side of the thread of the threaded part of the main fitting when viewed from the discharge-gap end.
A port for electric vehicles comprising: multiple lanes (116a, 116b, 116c) to which the electric vehicles are routed, each lane comprising an off-loading zone for off-loading one or more passengers from an electric vehicle, a loading zone for loading one or more passengers onto the electric vehicle, and a charging zone for charging the electric vehicle while the electric vehicle is moving from the off-loading zone to the loading zone, wherein the lanes are designated for routing of each electric vehicle based on a required charging time of each electric vehicle. multiple lanes (116a, 116b, 116c) to which the electric vehicles are routed, each lane comprising an off-loading zone for off-loading one or more passengers from an electric vehicle, a loading zone for loading one or more passengers onto the electric vehicle, and a charging zone for charging the electric vehicle while the electric vehicle is moving from the off-loading zone to the loading zone, an off-loading zone for off-loading one or more passengers from an electric vehicle, a loading zone for loading one or more passengers onto the electric vehicle, and a charging zone for charging the electric vehicle while the electric vehicle is moving from the off-loading zone to the loading zone, wherein the lanes are designated for routing of each electric vehicle based on a required charging time of each electric vehicle.
Security document in the form of a card, including a coupon formed by a multilayer complex having mainly an opaque area and surrounded by a transparent frame, characterized in that: - the coupon includes a cut-out in at least one of its corners and - the transparent frame includes at this cutout a bulge zone of a shape complementary to that of said cutout, and - the boundary line between said cutout and said bulge has a curved shape asymmetrical with respect to the bisector of the angle of the corner of the coupon corresponding to the bulge of the transparent frame. - the coupon includes a cut-out in at least one of its corners and - the transparent frame includes at this cutout a bulge zone of a shape complementary to that of said cutout, and - the boundary line between said cutout and said bulge has a curved shape asymmetrical with respect to the bisector of the angle of the corner of the coupon corresponding to the bulge of the transparent frame.
A process for continuously removing hydrogen sulfide from a gaseous stream comprising the following steps in combination: a. providing a feed stream containing hydrogen sulfide to an absorber; b. contacting the feed gas stream with a chelated metal catalyst in an absorber to produce a first stream of hydrogen sulfide-free gas and a second stream comprising elemental sulfur and chelated metal catalyst solution; c. removing the first stream from the process; d. providing an oxidizer; e. directing at least a portion of the second stream from step b. to the oxidizer; f. introducing a pressurized, oxygen containing gas stream into the oxidizer such that the oxygen diffuses through and contacts the second stream; and g. separating elemental sulfur from the chelated metal catalyst solution in the oxidizer and removing the sulfur from the process, characterized in that the absorber operates a pressure P1 that is greater than 6,89 bar, that the oxidizer operates at a pressure P2, where P2 ≥P1 + 0,34 bar and that the oxygen containing gas introduced into the oxidizer is used to maintain the pressure differential between the oxidizer and the absorber. a. providing a feed stream containing hydrogen sulfide to an absorber; b. contacting the feed gas stream with a chelated metal catalyst in an absorber to produce a first stream of hydrogen sulfide-free gas and a second stream comprising elemental sulfur and chelated metal catalyst solution; c. removing the first stream from the process; d. providing an oxidizer; e. directing at least a portion of the second stream from step b. to the oxidizer; f. introducing a pressurized, oxygen containing gas stream into the oxidizer such that the oxygen diffuses through and contacts the second stream; and g. separating elemental sulfur from the chelated metal catalyst solution in the oxidizer and removing the sulfur from the process, characterized in that the absorber operates a pressure P1 that is greater than 6,89 bar, that the oxidizer operates at a pressure P2, where P2 ≥P1 + 0,34 bar and that the oxygen containing gas introduced into the oxidizer is used to maintain the pressure differential between the oxidizer and the absorber.
A positive electrode mix comprising: a positive electrode active material; a conductive material; and an additive including lithium peroxide (Li 2 O 2) and platinum, wherein a content of the platinum in the total of 100 % by weight of the platinum and the conductive material is 7 % by weight or more to 20 % by weight or less, wherein the positive electrode active material includes: Li a Ni 1-b-c Co b R c O 2-α Z 2, wherein 0.90 ≤ a ≤ 1.8, 0 ≤ b ≤ 0.5, 0 ≤ c ≤ 0.05, 0 < α < 2, R is Al, Ni, Co, Mn, Cr, Fe, Mg, Sr, V, a rare-earth element or a combination thereof, and Z is F, S, P or a combination thereof); or Li a Ni b Co c Mn d G e O 2, wherein 0.90 ≤ a ≤ 1.8, 0 ≤ b ≤ 0.9, 0 ≤ c ≤ 0.5, 0 ≤ d ≤0.5, 0.001 ≤ e ≤ 0.1, and G is Al, Cr, Mn, Fe, Mg, La, Ce, Sr, V or a combination thereof. a positive electrode active material; a conductive material; and an additive including lithium peroxide (Li 2 O 2) and platinum, wherein a content of the platinum in the total of 100 % by weight of the platinum and the conductive material is 7 % by weight or more to 20 % by weight or less, wherein the positive electrode active material includes: Li a Ni 1-b-c Co b R c O 2-α Z 2, wherein 0.90 ≤ a ≤ 1.8, 0 ≤ b ≤ 0.5, 0 ≤ c ≤ 0.05, 0 < α < 2, R is Al, Ni, Co, Mn, Cr, Fe, Mg, Sr, V, a rare-earth element or a combination thereof, and Z is F, S, P or a combination thereof); or Li a Ni b Co c Mn d G e O 2, wherein 0.90 ≤ a ≤ 1.8, 0 ≤ b ≤ 0.9, 0 ≤ c ≤ 0.5, 0 ≤ d ≤0.5, 0.001 ≤ e ≤ 0.1, and G is Al, Cr, Mn, Fe, Mg, La, Ce, Sr, V or a combination thereof. Li a Ni 1-b-c Co b R c O 2-α Z 2, wherein 0.90 ≤ a ≤ 1.8, 0 ≤ b ≤ 0.5, 0 ≤ c ≤ 0.05, 0 < α < 2, R is Al, Ni, Co, Mn, Cr, Fe, Mg, Sr, V, a rare-earth element or a combination thereof, and Z is F, S, P or a combination thereof); or Li a Ni b Co c Mn d G e O 2, wherein 0.90 ≤ a ≤ 1.8, 0 ≤ b ≤ 0.9, 0 ≤ c ≤ 0.5, 0 ≤ d ≤0.5, 0.001 ≤ e ≤ 0.1, and G is Al, Cr, Mn, Fe, Mg, La, Ce, Sr, V or a combination thereof.
An industrial truck comprising a travel motor, a lifting apparatus for a load part of the industrial truck, power electronics for the travel motor, a tiller that can be pivoted about a horizontal axis and that comprises a tiller head in which control electronics are accommodated for the power electronics and the lifting apparatus, operating elements in the tiller head that are connected to the control electronics for controlling the travel motor and the lifting apparatus, which operating elements include, inter alia, a travel switch (38, 40) for the travel motor, wherein the tiller actuates a brake and stops the travel motor in the pivot end positions and, in operating positions therebetween, releases the brake and actuation of the travel motor is permitted, characterized in that at least one travel switch (38, 40) made of translucent material is provided on the tiller head, a lamp, in particular an LED, is covered by the travel switch (38 or 40) on the tiller head and the lamp lights up when the power electronics have started up error-free after being activated.
A method of suppressing echo, the method comprising: outputting an audio signal; receiving an audio signal, wherein the received audio signal includes an echo resulting from said outputted audio signal; characterised in that the method comprises: dynamically adapting a Finite Impulse Response filter estimate h(t), from a Finite Impulse Response filter, in the time domain based on the outputted audio signal and the received audio signal to model an echo path h(t) of the echo in the received audio signal; determining at least one power response from the filter estimate h(t); using the determined at least one power response to estimate the echo power of the echo in the received audio signal; and wherein the Finite Impulse Response filter is only used to estimate the echo power and not to estimate the actual echo signal; using the estimated echo power to apply echo suppression to the received audio signal, thereby suppressing the echo in the received audio signal. outputting an audio signal; receiving an audio signal, wherein the received audio signal includes an echo resulting from said outputted audio signal; characterised in that the method comprises: dynamically adapting a Finite Impulse Response filter estimate h(t), from a Finite Impulse Response filter, in the time domain based on the outputted audio signal and the received audio signal to model an echo path h(t) of the echo in the received audio signal; determining at least one power response from the filter estimate h(t); using the determined at least one power response to estimate the echo power of the echo in the received audio signal; and wherein the Finite Impulse Response filter is only used to estimate the echo power and not to estimate the actual echo signal; using the estimated echo power to apply echo suppression to the received audio signal, thereby suppressing the echo in the received audio signal.
Fixing device for a brushless motor comprising a rotor comprising a rotor element and magnets; said fixing device being suitable to be heat-shrunk onto said rotor so as to secure said magnets between said rotor element and said fixing device and comprising a plurality of heat-shrinkable layers each comprising at least one strip of heat-shrinkable material; and characterised in that said at least one strip has a helical barycentric trajectory of extension and is arranged in edge-on contact so as to define a substantially uniform thickness for each of said layers; and in that said fixing device comprises at least one adhesive layer arranged between said heat-shrinkable layers and comprising a dye.
A rope terminal assembly of an elevator fixing an elevator rope to a fixing base such as an elevator unit (2, CW), said elevator being suitable for transporting passengers and/or goods, which assembly comprises: - an elevator rope, whose width is larger than its thickness in a rope transverse direction, with at least one end having an end face (R'), - one or more wedge elements (8, 8'), - a wedge housing, said rope terminal assembly comprises a rope gap through which said elevator rope passes and said wedge element (8, 8') is arranged to wedge between said rope and said wedge housing thus locking said elevator rope in the gap, and said wedge housing is a one piece structure of predetermined size, and in that said wedge housing is made from a one piece structure characterized in that the one piece structure is made of predetermined size metallic hollow tube of ductile metal by tube hydroforming, such as by bulge forming method. - an elevator rope, whose width is larger than its thickness in a rope transverse direction, with at least one end having an end face (R'), - one or more wedge elements (8, 8'), - a wedge housing, said rope terminal assembly comprises a rope gap through which said elevator rope passes and said wedge element (8, 8') is arranged to wedge between said rope and said wedge housing thus locking said elevator rope in the gap, and said wedge housing is a one piece structure of predetermined size, and in that said wedge housing is made from a one piece structure characterized in that the one piece structure is made of predetermined size metallic hollow tube of ductile metal by tube hydroforming, such as by bulge forming method.
A preparation in solid or paste form that can be injected or implanted into the human or animal body, which comprises, as main active component, globin that is insoluble at physiological pH, biocompatible and sterile, for use as a tissue filling material.
A track link assembly, comprising a plurality of link subassemblies, wherein each link subassembly includes a pair of links coupled together, wherein each link includes a first aperture and a second aperture, and wherein the second aperture of each link is larger than the first aperture; a pin element extending through the first aperture of a first link and the second aperture of a second link in each link subassembly; and a bushing element with a central opening, wherein the bushing element surrounds a portion of the pin element and extends through the second aperture of the second link of each link subassembly, characterised in that the bushing element includes at least one hole configured to couple a track shoe to the bushing element. a plurality of link subassemblies, wherein each link subassembly includes a pair of links coupled together, wherein each link includes a first aperture and a second aperture, and wherein the second aperture of each link is larger than the first aperture; a pin element extending through the first aperture of a first link and the second aperture of a second link in each link subassembly; and a bushing element with a central opening, wherein the bushing element surrounds a portion of the pin element and extends through the second aperture of the second link of each link subassembly, characterised in that the bushing element includes at least one hole configured to couple a track shoe to the bushing element.
A pharmaceutical composition in the form of a dry powder comprising trehalose or salts thereof, for use in the treatment or prevention of tissue adhesions during or after surgery or during wound therapy, wherein the dry powder composition further comprises fibrinogen and thrombin.
An apparatus comprising: means (31; 41) for obtaining or receiving video data; means for providing a current frame and/or one or more previous frames of the video data to an input of a neural network (33; 62); means for generating a predicted output at, or based on, an output of the neural network, wherein the predicted output comprises at least one of predicted future frames of the video data or predicted properties of one or more predicted future frames of the video data; means for determining one or more processing decisions based, at least in part, on the predicted output, wherein said processing decisions include determining an encoding method for at least the current frame of the video data; and means (34; 42) for processing the current frame of the video data at least partially according to the one or more processing decisions. means (31; 41) for obtaining or receiving video data; means for providing a current frame and/or one or more previous frames of the video data to an input of a neural network (33; 62); means for generating a predicted output at, or based on, an output of the neural network, wherein the predicted output comprises at least one of predicted future frames of the video data or predicted properties of one or more predicted future frames of the video data; means for determining one or more processing decisions based, at least in part, on the predicted output, wherein said processing decisions include determining an encoding method for at least the current frame of the video data; and means (34; 42) for processing the current frame of the video data at least partially according to the one or more processing decisions.