mhurhangee/ep-ind-claims huggingface dataset:
An intake manifold for an engine comprising a plurality of cylinder heads, each cylinder head defining a respective cylinder of a plurality of cylinders, the intake manifold comprising: a first passage providing a first pathway through the intake manifold for supplying intake air to the plurality of cylinders of the engine; a gaseous fuel passage providing a pathway through the intake manifold for supplying gaseous fuel to at least one of the plurality of cylinders; at least one gas admission valve mounted to the gaseous fuel passage configured to control a flow rate of the gaseous fuel to the at least one of the plurality of cylinders; and a gas runner (406, 408) coupling the at least one gas admission valve to at least one cylinder head, and arranged such that, in use, gaseous fuel exiting the gas runner mixes with incoming intake air at a mixing region where the intake manifold is coupled to the cylinder head. a first passage providing a first pathway through the intake manifold for supplying intake air to the plurality of cylinders of the engine; a gaseous fuel passage providing a pathway through the intake manifold for supplying gaseous fuel to at least one of the plurality of cylinders; at least one gas admission valve mounted to the gaseous fuel passage configured to control a flow rate of the gaseous fuel to the at least one of the plurality of cylinders; and a gas runner (406, 408) coupling the at least one gas admission valve to at least one cylinder head, and arranged such that, in use, gaseous fuel exiting the gas runner mixes with incoming intake air at a mixing region where the intake manifold is coupled to the cylinder head.
Bacteria of the species Lactobacillus paracasei for use in preventing and/or treating a mood disorder, such as mood swings, an anxiety disorder, depression, and/or memory loss or diminished cognitive function, each disorder or condition associated with chronic stress, in a mammal, wherein the bacteria of the species Lactobacillus paracasei is strain Lpc-37 registered at the DSMZ under deposit number DSM 32661.
A device for use with a female needleless connector, having a proximal end, comprising: a housing comprising a proximal wall and a sidewall coupled to the proximal wall to define a chamber having a distal opening that is configured to fit over the proximal end of the female needleless connector; and an elongated finger attached to the proximal wall of the housing and disposed within the chamber, an outer surface of the elongate finger comprising an undercut extending therealong, such that the elongated finger opens a fluid path through the female needleless connector when the distal opening of the housing is placed adjacent to the proximal end of the female needleless connector and the device is advanced in a distal direction; and a matrix comprising a fluid-absorbing material having a portion that extends along an inner surface of the sidewall, and another portion that extends along the undercut of the elongated finger. a housing comprising a proximal wall and a sidewall coupled to the proximal wall to define a chamber having a distal opening that is configured to fit over the proximal end of the female needleless connector; and an elongated finger attached to the proximal wall of the housing and disposed within the chamber, an outer surface of the elongate finger comprising an undercut extending therealong, such that the elongated finger opens a fluid path through the female needleless connector when the distal opening of the housing is placed adjacent to the proximal end of the female needleless connector and the device is advanced in a distal direction; and a matrix comprising a fluid-absorbing material having a portion that extends along an inner surface of the sidewall, and another portion that extends along the undercut of the elongated finger.
Storage volume comprising a mainly cubical housing defining an interior space, which housing comprises a bottom wall, a top wall, a left side wall, a right side wall, a rear wall and a front wall, all with a mainly square contour, whereby at least the front wall is provided with an opening providing access to the interior space which is defined by the above-mentioned walls, and whereby at least the side walls are provided with coupling means on their outward facing sides, whereby these coupling means are made in such a way that they allow such storage volumes to be coupled, either with both their front walls in the same plane, or with the front wall of one of the storage volumes in the same plane as the rear wall of the other storage volume, whereby the coupling means provided on the side walls are at least made bipolar, whereby the antipoles are complementary or linkable and positioned symmetrically in relation to the first vertical median plane which is parallel to the front wall and the rear wall and situated mainly in the middle between these walls, wherein each of the two poles which at least comprise the coupling means on the left side wall as well as the coupling means on the right side wall, consist of one male part and one female part, whereby the male part of a first pole is at least complementary to the female part of the other pole, and whereby the four coupling members per wall in total are positioned at the angles of an imaginary square which is mainly provided in the middle of the side wall concerned, characterised in that the two male parts as well as the two female parts occupy the diagonal or non-adjacent angles of the imaginary square.
A method for dynamic autopilot control of a projectile, comprising: obtaining sensor data from at least one on-board sensor, wherein said at least one sensor comprises an accelerometer, a temperature sensor, and a pressure sensor; providing said sensor data to at least one processor coupled to said dynamic autopilot, wherein said processor calculates Mach and dynamic pressure; guiding said projectile to a target using said dynamic autopilot control; characterized in tailoring parameters of said dynamic autopilot based upon the Mach and/or dynamic pressure, said dynamic autopilot parameters comprising at least one of: a roll control filter parameter; a pitch/yaw filter parameter; a guidance filter parameter. obtaining sensor data from at least one on-board sensor, wherein said at least one sensor comprises an accelerometer, a temperature sensor, and a pressure sensor; providing said sensor data to at least one processor coupled to said dynamic autopilot, wherein said processor calculates Mach and dynamic pressure; guiding said projectile to a target using said dynamic autopilot control; characterized in tailoring parameters of said dynamic autopilot based upon the Mach and/or dynamic pressure, said dynamic autopilot parameters comprising at least one of: a roll control filter parameter; a pitch/yaw filter parameter; a guidance filter parameter. a roll control filter parameter; a pitch/yaw filter parameter; a guidance filter parameter.
A positive electrode comprising a positive electrode current collector and a positive electrode active material-containing layer formed on the positive electrode current collector, the positive electrode active material-containing layer comprising particles of at least one lithium-nickel composite oxide and particles of a conductive agent, characterized in that the particles in the positive electrode active material-containing layer have such a particle size distribution obtained by a laser diffraction scattering method that the average particle diameter d 50 is within a range of 1 μm to 5.5 μm, the maximum particle diameter is within a range of 10 μm to 100 μm, the particle diameter d 10 is within a range of 0.5 μm to 3 μm, and X, represented by X = (d 50 - d 10)/d 50, is within a range of 0.5 to less than 1.
A diode that comprises: • a conductive substrate wherein the thickness of said conductive substrate is ranging between 20 μm and 200 μm, • a first layer comprising a polymeric insulator located on the substrate, wherein the thickness of said first layer is ranging between 500 nm and 1 μm, • a second layer comprising an organic p-type semiconductor located on the first layer, • a third layer located on the second layer, • wherein the conductive substrate is acting as cathode and the third layer is acting as anode, characterized in that: • the conductive substrate comprises a conductive nanopaper, said conductive nanopaper comprising: ∘ cellulose nanofibers in a weight percent of between 50 wt% and 80 wt% with respect to the total weight of the conductive substrate, and ∘ a conductive material in a weight percent of between 20 wt% and 50 wt% with respect to the total weight of the conductive substrate, said conductive material selected from a conductive polymer, carbon nanotubes or a combination thereof, • the thickness of said second layer is ranging between 200 nm and 500 nm, • the thickness of said third layer is ranging between 100 nm and 200 nm, and the polymeric insulator of the first layer is a cured ink comprising amorphous silica, epoxy resin and epoxy hardener. • a conductive substrate wherein the thickness of said conductive substrate is ranging between 20 μm and 200 μm, • a first layer comprising a polymeric insulator located on the substrate, wherein the thickness of said first layer is ranging between 500 nm and 1 μm, • a second layer comprising an organic p-type semiconductor located on the first layer, • a third layer located on the second layer, • wherein the conductive substrate is acting as cathode and the third layer is acting as anode, • the conductive substrate comprises a conductive nanopaper, said conductive nanopaper comprising: ∘ cellulose nanofibers in a weight percent of between 50 wt% and 80 wt% with respect to the total weight of the conductive substrate, and ∘ a conductive material in a weight percent of between 20 wt% and 50 wt% with respect to the total weight of the conductive substrate, said conductive material selected from a conductive polymer, carbon nanotubes or a combination thereof, ∘ cellulose nanofibers in a weight percent of between 50 wt% and 80 wt% with respect to the total weight of the conductive substrate, and ∘ a conductive material in a weight percent of between 20 wt% and 50 wt% with respect to the total weight of the conductive substrate, said conductive material selected from a conductive polymer, carbon nanotubes or a combination thereof, • the thickness of said second layer is ranging between 200 nm and 500 nm, • the thickness of said third layer is ranging between 100 nm and 200 nm, and the polymeric insulator of the first layer is a cured ink comprising amorphous silica, epoxy resin and epoxy hardener.
A point-of-purchase spectrophotometer for open-viewing measurement of a color sample to be measured by a user, comprising: an illumination optical system having an illumination line of sight directed toward a target location of a target plane; and an imaging optical system having an imaging line of sight directed toward the target location; wherein the imaging optical system includes a targeting optical system for identifying the target location, the targeting optical system including at least one aperture (80, 86), the targeting optical system being configured to project light toward the target plane to define a size of the target location (T L) for user-identification thereof, the targeting optical system being further configured to visually identify to the user the circumference of the target location (T L) at which the sample is to be positioned and/or measured, and characterized in that the targeting optical system includes a targeting light source and a reflecting ring (90, 92) circumscribing an aperture of the targeting optical system, wherein the aperture functions as a field stop that defines the perceived target size associated with the target location, wherein the reflecting ring (90, 92) is configured to reflect light from said targeting light source to the target plane so as to define the size of the target location. an illumination optical system having an illumination line of sight directed toward a target location of a target plane; and an imaging optical system having an imaging line of sight directed toward the target location; wherein the imaging optical system includes a targeting optical system for identifying the target location, the targeting optical system including at least one aperture (80, 86), the targeting optical system being configured to project light toward the target plane to define a size of the target location (T L) for user-identification thereof, the targeting optical system being further configured to visually identify to the user the circumference of the target location (T L) at which the sample is to be positioned and/or measured, and
A cord disconnect apparatus comprising: a housing defining a receptacle for a plug of a cord; an ejection mechanism;and a motor and a gear assembly; characterized in that the ejection mechanism includes a scotch yoke assembly driven by the motor through the gear assembly supported by the housing, the scotch yoke assembly being reciprocatable to engage and eject the plug from the receptacle by turning the motor in a single direction. a housing defining a receptacle for a plug of a cord; an ejection mechanism;and a motor and a gear assembly; characterized in that the ejection mechanism includes a scotch yoke assembly driven by the motor through the gear assembly supported by the housing, the scotch yoke assembly being reciprocatable to engage and eject the plug from the receptacle by turning the motor in a single direction.
A motorcycle pneumatic tire comprising a ring-shaped tread portion, characterized in that a steeply-inclined groove having an inclination angle (θc) of larger than 0° and not larger than 35° with respect to the circumferential direction is provided on, when the width of a tread portion is set to Tw, the whole or a part of regions from a tire tire equator to lengths of 1/4Tw in the width direction in a V shape centering on the tire tire equator, and in that a mildly-inclined groove having an inclination angle (θs) of 45° to 90° with respect to the circumferential direction is provided on the whole or a part of regions from the outside end portion of the steeply-inclined groove in the tire width direction to a tread end portion discontinuously with the steeply-inclined groove.
A method for synthesising a molecular magnetic material, characterised in that the method comprises the steps of: - producing a mixture comprising components: - a paramagnetic reactant comprising a d-electron metal in a paramagnetic form selected from the group consisting of: Fe, Co, Mo, W and Mn, - a diamagnetic reactant comprising a d-electron metal in a diamagnetic form, selected from the group consisting of: Fe, Co, Mo, W and Mn, - at least one donor of cyanide (CN-) ligands being a separate compound and/or contained in the paramagnetic reactant and/or in the diamagnetic reactant, - at least one cation having coordination sites for binding cyanide nitrogen atoms from the donor of cyanide ligands, - except for a mixture of reactants simultaneously comprising as the paramagnetic reactant: [W 6] - and as the diamagnetic reactant: [W 6] -2, where NN is a bidentate NN-donor substituent, - carrying out a reaction of the components of the mixture to form coordination bonds between the cation and cyanide nitrogen atoms derived from the donor of cyanide ligands, to obtain a polycyanide complex being the molecular magnetic material. - producing a mixture comprising components: - a paramagnetic reactant comprising a d-electron metal in a paramagnetic form selected from the group consisting of: Fe, Co, Mo, W and Mn, - a diamagnetic reactant comprising a d-electron metal in a diamagnetic form, selected from the group consisting of: Fe, Co, Mo, W and Mn, - at least one donor of cyanide (CN-) ligands being a separate compound and/or contained in the paramagnetic reactant and/or in the diamagnetic reactant, - at least one cation having coordination sites for binding cyanide nitrogen atoms from the donor of cyanide ligands, - except for a mixture of reactants simultaneously comprising as the paramagnetic reactant: [W 6] - and as the diamagnetic reactant: [W 6] -2, where NN is a bidentate NN-donor substituent, - a paramagnetic reactant comprising a d-electron metal in a paramagnetic form selected from the group consisting of: Fe, Co, Mo, W and Mn, - a diamagnetic reactant comprising a d-electron metal in a diamagnetic form, selected from the group consisting of: Fe, Co, Mo, W and Mn, - at least one donor of cyanide (CN-) ligands being a separate compound and/or contained in the paramagnetic reactant and/or in the diamagnetic reactant, - at least one cation having coordination sites for binding cyanide nitrogen atoms from the donor of cyanide ligands, - except for a mixture of reactants simultaneously comprising as the paramagnetic reactant: [W 6] - and as the diamagnetic reactant: [W 6] -2, where NN is a bidentate NN-donor substituent, - carrying out a reaction of the components of the mixture to form coordination bonds between the cation and cyanide nitrogen atoms derived from the donor of cyanide ligands, to obtain a polycyanide complex being the molecular magnetic material.
A steel sheet for cans comprising, on a surface of a steel sheet, a chromium metal layer and a hydrated chromium oxide layer stacked in this order from a steel sheet side, wherein the chromium metal layer has a coating weight of 65 to 200 mg/m 2, wherein the hydrated chromium oxide layer has a coating weight of 3 to 15 mg/m 2 in terms of chromium amount, and wherein the chromium metal layer includes: a flat chromium metal layer with a thickness of not less than 7 nm; and a granular chromium metal layer having granular protrusions formed on a surface of the flat chromium metal layer, the granular protrusions having a maximum diameter of not more than 100 nm and a number density per unit area of not less than 10 protrusions/μm 2, all determined by measurement methods described in the description. a flat chromium metal layer with a thickness of not less than 7 nm; and a granular chromium metal layer having granular protrusions formed on a surface of the flat chromium metal layer, the granular protrusions having a maximum diameter of not more than 100 nm and a number density per unit area of not less than 10 protrusions/μm 2, all determined by measurement methods described in the description.
An articulated arm comprising: • a first end and a second end, the second end is configured to support a tool; • at least two longitudinal extending arm sections (68, 68', 68") between the first end and the second end, wherein each pair of adjacent arm sections (68, 68', 68") is connected with each other by a pivot joint (70, 70', 70"), the pivot joint (70, 70', 70") having an integrated angle encoder arranged to generate encoder signals indicating the relative position of the arm sections (68, 68', 68"); • electronic transmission means arranged to transmit encoder signals from the angle encoders towards a circuit configured to derive at least the relative position between the adjacent arm sections (68, 68', 68") from the encoder signals and optionally to a reference point or reference coordinate system characterized in that • the articulated arm is a modular construction, wherein the arm sections (68, 68', 68") are configured as arm section modules (69, 69', 69") having a PCB unit (10, 12), said PCB unit (10, 12) comprises an elongated PCB section element and at least one PCB encoder element (16a, 16b) connected to one end of the elongated PCB section element, • wherein the PCB encoder elements (16a, 16b) of adjacent arm sections (68, 68', 68") are arranged face to face and pivotable against each other around a common axis, so that they form the angle encoder; and • wherein the PCB section elements comprise the electronic transmission means arranged to transmit the encoder signals from the PCB encoder elements toward the circuit. • a first end and a second end, the second end is configured to support a tool; • at least two longitudinal extending arm sections (68, 68', 68") between the first end and the second end, wherein each pair of adjacent arm sections (68, 68', 68") is connected with each other by a pivot joint (70, 70', 70"), the pivot joint (70, 70', 70") having an integrated angle encoder arranged to generate encoder signals indicating the relative position of the arm sections (68, 68', 68"); • electronic transmission means arranged to transmit encoder signals from the angle encoders towards a circuit configured to derive at least the relative position between the adjacent arm sections (68, 68', 68") from the encoder signals and optionally to a reference point or reference coordinate system • the articulated arm is a modular construction, wherein the arm sections (68, 68', 68") are configured as arm section modules (69, 69', 69") having a PCB unit (10, 12), said PCB unit (10, 12) comprises an elongated PCB section element and at least one PCB encoder element (16a, 16b) connected to one end of the elongated PCB section element, • wherein the PCB encoder elements (16a, 16b) of adjacent arm sections (68, 68', 68") are arranged face to face and pivotable against each other around a common axis, so that they form the angle encoder; and • wherein the PCB section elements comprise the electronic transmission means arranged to transmit the encoder signals from the PCB encoder elements toward the circuit.
A quantum communications system comprising: a communications system; and a quantum key distribution, QKD, system operable with the communications system and comprising a transmitter node, a receiver node, and a quantum communications channel coupling the transmitter node and receiver node; the transmitter node cooperating with the quantum communications channel defining at least one Talbot effect image position along the quantum communications channel; and the receiver node being located along the quantum communications channel at the at least one Talbot effect image position, wherein the receiver node comprises a single photon detector, a phase detector and a beam splitter that is configured to randomly direct an incoming photon to either the single photon detector or the phase detector, and wherein the receiver node further includes a controller which is configured the process signals generated by the photon detector and the phase detector based on a communications protocol. a communications system; and a quantum key distribution, QKD, system operable with the communications system and comprising a transmitter node, a receiver node, and a quantum communications channel coupling the transmitter node and receiver node; the transmitter node cooperating with the quantum communications channel defining at least one Talbot effect image position along the quantum communications channel; and the receiver node being located along the quantum communications channel at the at least one Talbot effect image position, wherein the receiver node comprises a single photon detector, a phase detector and a beam splitter that is configured to randomly direct an incoming photon to either the single photon detector or the phase detector, and wherein the receiver node further includes a controller which is configured the process signals generated by the photon detector and the phase detector based on a communications protocol.