mhurhangee/patent-ind-claim-en huggingface dataset:
A device for supplying a dose of laundry product, the device having five reservoirs which are: (i) a reservoir containing a composition comprising a surfactant; (ii) a reservoir containing a composition comprising a first enzyme; (iii) a reservoir containing a composition comprising a second enzyme, wherein the second enzyme is different from the first enzyme; (iv) a reservoir containing a composition comprising a bleach component; and (v) a reservoir containing a composition comprising an alkaline component; wherein the device has a nozzle for dispensing the composition, a control/information interface and a computer module programmed to cause the device to dispense from one or more of said reservoirs to provide a laundry product in a dosing device as a result of input, whereby - each reservoir is a cartridge that cooperates with a housing of the device , such that the composition in each reservoir is in controllable fluid communication with the nozzle and - wherein the control/information interface is configured to prompt the user to select from at least one set of options to input stain identity and / or at least one set of options to input fabric colour and / or type. (i) a reservoir containing a composition comprising a surfactant; (ii) a reservoir containing a composition comprising a first enzyme; (iii) a reservoir containing a composition comprising a second enzyme, wherein the second enzyme is different from the first enzyme; (iv) a reservoir containing a composition comprising a bleach component; and (v) a reservoir containing a composition comprising an alkaline component; - each reservoir is a cartridge that cooperates with a housing of the device , such that the composition in each reservoir is in controllable fluid communication with the nozzle and - wherein the control/information interface is configured to prompt the user to select from at least one set of options to input stain identity and / or at least one set of options to input fabric colour and / or type.
A method of sequencing a nucleic acid molecule, the method comprising: a) imaging a first surface and an axially-displaced second surface using an optical system which comprises an objective lens and at least one image sensor , wherein the optical system has a numerical aperture (NA) of less than 0.6 and a field-of-view (FOV) of greater than 1.0 mm 2 , wherein images of the first surface and the axially-displaced second surface having substantially the same optical resolution are acquired without moving an optical compensator into an optical path between the objective lens and the at least one image sensor ; and wherein the at least one image sensor comprises pixels having a pixel dimension chosen such that a spatial sampling frequency for the optical system is at least twice an optical resolution of the optical system ; and b) detecting a fluorescently labeled composition comprising the nucleic acid molecule, or a complement thereof, disposed on the first surface or the axially-displaced second surface to determine an identity of a nucleotide in the nucleic acid molecule. a) imaging a first surface and an axially-displaced second surface using an optical system which comprises an objective lens and at least one image sensor , wherein the optical system has a numerical aperture (NA) of less than 0.6 and a field-of-view (FOV) of greater than 1.0 mm 2 , wherein images of the first surface and the axially-displaced second surface having substantially the same optical resolution are acquired without moving an optical compensator into an optical path between the objective lens and the at least one image sensor ; and wherein the at least one image sensor comprises pixels having a pixel dimension chosen such that a spatial sampling frequency for the optical system is at least twice an optical resolution of the optical system ; and b) detecting a fluorescently labeled composition comprising the nucleic acid molecule, or a complement thereof, disposed on the first surface or the axially-displaced second surface to determine an identity of a nucleotide in the nucleic acid molecule.
An apparatus, comprising: a memory device ; and a host device coupled to the memory device , wherein the host device includes a host controller configured to: receive a memory device transaction identification, TID, record , wherein the memory device TID record includes transaction identifications, TIDs, ; and determine a TID associated with a command by comparing a host TID record with the memory device TID record and identify a TID in the memory device TID record that is missing from the host TID record . a memory device ; and a host device coupled to the memory device , wherein the host device includes a host controller configured to: receive a memory device transaction identification, TID, record , wherein the memory device TID record includes transaction identifications, TIDs, ; and determine a TID associated with a command by comparing a host TID record with the memory device TID record and identify a TID in the memory device TID record that is missing from the host TID record . receive a memory device transaction identification, TID, record , wherein the memory device TID record includes transaction identifications, TIDs, ; and determine a TID associated with a command by comparing a host TID record with the memory device TID record and identify a TID in the memory device TID record that is missing from the host TID record .
A light bulb comprising: - a light engine arranged within a space enclosed by a light transmissive surface structure and a glass stem ; the glass stem comprising a mutually connected flare and tubular portion , the stem supporting the light engine and is fused by its flare to the light transmissive surface structure; - a feedthrough body extending through the glass stem and being fixed by fusion in said tubular portion, wherein the feedthrough body is provided with a plurality of electrical conductors electrically isolated from each other which extend through the glass stem and connect said light engine to at least one power and signal source, characterized in that said feedthrough body is made of a ceramic, or a glass, and wherein the glass stem has a first melting point Tm1 and the feedthrough body has a second melting point Tm2, wherein Tm2-Tm1 >= 75°C. - a light engine arranged within a space enclosed by a light transmissive surface structure and a glass stem ; the glass stem comprising a mutually connected flare and tubular portion , the stem supporting the light engine and is fused by its flare to the light transmissive surface structure; - a feedthrough body extending through the glass stem and being fixed by fusion in said tubular portion, wherein the feedthrough body is provided with a plurality of electrical conductors electrically isolated from each other which extend through the glass stem and connect said light engine to at least one power and signal source, characterized in that said feedthrough body is made of a ceramic, or a glass, and wherein the glass stem has a first melting point Tm1 and the feedthrough body has a second melting point Tm2, wherein Tm2-Tm1 >= 75°C.
A combustor wall characterised in that it comprises: a substrate ; a bond coat layer disposed on the substrate ; a layer of networked ceramic nanofibers disposed on the bond coat layer , in which the networked ceramic nanofibers comprise fibers or filaments intertwined to form a tangled porous network of fibers or filaments that contact each other and in which the pores are voids; and the bond coat layer is comprised of MCrAlY. a substrate ; a bond coat layer disposed on the substrate ; a layer of networked ceramic nanofibers disposed on the bond coat layer , in which the networked ceramic nanofibers comprise fibers or filaments intertwined to form a tangled porous network of fibers or filaments that contact each other and in which the pores are voids; and the bond coat layer is comprised of MCrAlY.
Piston compressor, in particular radial piston compressor, comprising - at least two piston-working chamber combinations (1a-g), wherein - each piston-working chamber combination has at least one fluid inlet channel (11a-g) and one fluid outlet channel (12a-g), wherein - the at least one fluid inlet channel (11a-g) is fluidically connected to a low-pressure collection volume (ND), characterized in that - the low-pressure collection volume (ND) comprises a first partial collection volume (ND1) and at least one second partial collection volume (ND2), wherein the first partial collection volume and the second partial collection volume are fluidically connected to one another via a first overflow channel (ND1) and at least one second overflow channel (ND2) - at least two piston-working chamber combinations (1a-g), wherein - each piston-working chamber combination has at least one fluid inlet channel (11a-g) and one fluid outlet channel (12a-g), wherein - the at least one fluid inlet channel (11a-g) is fluidically connected to a low-pressure collection volume (ND), characterized in that - the low-pressure collection volume (ND) comprises a first partial collection volume (ND1) and at least one second partial collection volume (ND2), wherein the first partial collection volume and the second partial collection volume are fluidically connected to one another via a first overflow channel (ND1) and at least one second overflow channel (ND2)
Internal combustion engine, comprising at least one starter having a starter gear which is arranged at the opposite end of the crankshaft or at the same end in order to transmit the rotation of the starter to the crankshaft, wherein the starter is attached to the crankcase of the internal combustion engine, and wherein the starter is inserted into a receiving bore and is arranged such that it can be fastened to the crankcase by means of at least one screw , and wherein a holder is arranged on the starter , and the holder has at least one receiving bore , in which a support plate for receiving cables or pipes is mounted, and characterized in that the holder is fastened to the starter by way of two guide rods , wherein the holder is mounted on two guide rods by means of a mounting contour. at least one starter having a starter gear which is arranged at the opposite end of the crankshaft or at the same end in order to transmit the rotation of the starter to the crankshaft, wherein the starter is attached to the crankcase of the internal combustion engine, and wherein the starter is inserted into a receiving bore and is arranged such that it can be fastened to the crankcase by means of at least one screw , and wherein a holder is arranged on the starter , and the holder has at least one receiving bore , in which a support plate for receiving cables or pipes is mounted, and characterized in that the holder is fastened to the starter by way of two guide rods , wherein the holder is mounted on two guide rods by means of a mounting contour.
A method of correcting printing misalignment in a printing apparatus , the printing apparatus comprising: a printer having a plurality of plate cylinders for printing different colors, the printer configured to perform printing on an object; an imaging device configured to take an image that has been printed on the object; and an image processor configured to process the taken image, the image processor having printing misalignment value measurement means configured to measure a misalignment value with respect to a set position of a printing misalignment inspection mark (A) that has been printed on the object, wherein the printing misalignment inspection mark (A) is a hollow circle that is white inside, consisting of a white portion (W) and a circular print portion (P) located outside the white portion (W), wherein the printing misalignment value measurement means measures the misalignment value with respect to the set position by using the white portion (W) of the printing misalignment inspection mark (A) and wherein the printing misalignment value measurement means determines a position and a size of a marginal portion (M) of an actually printed printing misalignment inspection mark that protrudes from the perfect circle by using the circular print portion (P) that is located outside the white portion (W) of the printing misalignment inspection mark (A). a printer having a plurality of plate cylinders for printing different colors, the printer configured to perform printing on an object; an imaging device configured to take an image that has been printed on the object; and an image processor configured to process the taken image, the image processor having printing misalignment value measurement means configured to measure a misalignment value with respect to a set position of a printing misalignment inspection mark (A) that has been printed on the object, wherein the printing misalignment inspection mark (A) is a hollow circle that is white inside, consisting of a white portion (W) and a circular print portion (P) located outside the white portion (W), wherein the printing misalignment value measurement means measures the misalignment value with respect to the set position by using the white portion (W) of the printing misalignment inspection mark (A) and wherein the printing misalignment value measurement means determines a position and a size of a marginal portion (M) of an actually printed printing misalignment inspection mark that protrudes from the perfect circle by using the circular print portion (P) that is located outside the white portion (W) of the printing misalignment inspection mark (A).
An ophthalmic surgical laser system comprising: a laser delivery head, including optics which define an optical axis for delivering a laser beam to an eye of a patient; a radio frequency, RF, detector system, characterized in that : said detector includes a first, a second, a third and a fourth RF antenna (A, B, C, D) a control device electrically coupled to the first through fourth antennas, wherein the first through fourth antennas are affixed on the laser delivery head and located in a plane perpendicular to the optical axis, wherein the first and second antennas have identical structures and are located at equal distances from the optical axis along a first line that passes through the optical axis, wherein the third and fourth antennas have identical structures and are located at equal distances from the optical axis along a second line that passes through the optical axis, and wherein the control device is configured to control each of the first through fourth antennas to measure an RF signal generated by an external RF antenna, and based on the measured RF signals by the first through fourth antennas, to determine whether or not the external RF antenna is located within a predetermined distance from the optical axis. a laser delivery head, including optics which define an optical axis for delivering a laser beam to an eye of a patient; a radio frequency, RF, detector system, characterized in that : said detector includes a first, a second, a third and a fourth RF antenna (A, B, C, D) a control device electrically coupled to the first through fourth antennas, wherein the first through fourth antennas are affixed on the laser delivery head and located in a plane perpendicular to the optical axis, wherein the first and second antennas have identical structures and are located at equal distances from the optical axis along a first line that passes through the optical axis, wherein the third and fourth antennas have identical structures and are located at equal distances from the optical axis along a second line that passes through the optical axis, and wherein the control device is configured to control each of the first through fourth antennas to measure an RF signal generated by an external RF antenna, and based on the measured RF signals by the first through fourth antennas, to determine whether or not the external RF antenna is located within a predetermined distance from the optical axis.
An electric motor comprising: a stator positioned lengthwise within and fixed to a case wherein the stator has a stator core , a coil wound around a tooth extending from the stator core , and an insulating member attached to the stator core wherein the insulating member is configured to insulate the coil from the stator core ; a wire holding part (35; 36; 37; 38) extending from the insulating member , wherein the wire holding part is configured to hold a wire (L1, L2) substantially within an outer diameter (E) of the insulating member to permit the wire (L1, L2) to connect with a wire connecting part (34b1, 34b2) formed in the insulating member ; and a rotor positioned lengthwise along an inner circumference of the stator wherein the rotor is configured to rotate about a motor axis (M) extending lengthwise across the electric motor , wherein the wire holding part further comprises: a coil regulating part (35b; 36b; 37b; 38b) to regulate the position of the coil along the motor axis (M); and a holding part (35a; 36a; 37a; 38a) for fitting the wire (L1, L2) between the holding part (35a; 36a; 37a; 38a) and the coil regulating part (35b; 36b; 37b; 38b) characterised in that the holding part (35a; 36a; 37a; 38a) faces the coil regulating part (35b; 36b; 37b; 38b) along the motor axis (M) when viewed along the motor axis (M). a stator positioned lengthwise within and fixed to a case wherein the stator has a stator core , a coil wound around a tooth extending from the stator core , and an insulating member attached to the stator core wherein the insulating member is configured to insulate the coil from the stator core ; a wire holding part (35; 36; 37; 38) extending from the insulating member , wherein the wire holding part is configured to hold a wire (L1, L2) substantially within an outer diameter (E) of the insulating member to permit the wire (L1, L2) to connect with a wire connecting part (34b1, 34b2) formed in the insulating member ; and a rotor positioned lengthwise along an inner circumference of the stator wherein the rotor is configured to rotate about a motor axis (M) extending lengthwise across the electric motor , wherein the wire holding part further comprises: a coil regulating part (35b; 36b; 37b; 38b) to regulate the position of the coil along the motor axis (M); and a holding part (35a; 36a; 37a; 38a) for fitting the wire (L1, L2) between the holding part (35a; 36a; 37a; 38a) and the coil regulating part (35b; 36b; 37b; 38b) characterised in that the holding part (35a; 36a; 37a; 38a) faces the coil regulating part (35b; 36b; 37b; 38b) along the motor axis (M) when viewed along the motor axis (M). a coil regulating part (35b; 36b; 37b; 38b) to regulate the position of the coil along the motor axis (M); and a holding part (35a; 36a; 37a; 38a) for fitting the wire (L1, L2) between the holding part (35a; 36a; 37a; 38a) and the coil regulating part (35b; 36b; 37b; 38b) characterised in that the holding part (35a; 36a; 37a; 38a) faces the coil regulating part (35b; 36b; 37b; 38b) along the motor axis (M) when viewed along the motor axis (M).
A strain gauge comprising: a flexible substrate ; and a resistor , characterized by further comprising a functional layer formed of a metal, an alloy, or a metal compound, directly on one surface of the substrate , wherein the resistor is formed of a film including Cr, CrN and Cr 2 N, directly on one surface of the functional layer , and wherein the functional layer includes a material that allows for promotion of crystal growth of the resistor , and the crystal growth causes a film of the resistor formed with a main component to be formed. a flexible substrate ; and a resistor , characterized by further comprising a functional layer formed of a metal, an alloy, or a metal compound, directly on one surface of the substrate , wherein the resistor is formed of a film including Cr, CrN and Cr 2 N, directly on one surface of the functional layer , and wherein the functional layer includes a material that allows for promotion of crystal growth of the resistor , and the crystal growth causes a film of the resistor formed with a main component to be formed.
An electrowetting on dielectric (EWOD) device comprising: a substrate assembly that includes electrowetting electrodes ; and an impedance cytometry device incorporated into the substrate assembly; wherein the impedance cytometry device comprises an electrode arrangement provided in the substrate assembly in a co-planar fashion, the electrode arrangement comprising a drive electrode (D;D1,D2) and a plurality of measurement electrodes (240,245,250,255; 640,645,650,655;740,745,750,755; M1A,M1B,M2A,M2B) located in a same plane as the drive electrode (D;D1,D2); wherein the plurality of measurement electrodes includes at least two pairs (220,230;620,630;720,730) of measurement sub-electrodes, each pair of measurement sub-electrodes including a first measurement sub-electrode (240,245;640,645:740,745; M1A, M2A) positioned adjacent to the drive electrode (D;D1,D2), and a second measurement sub-electrode (250,255; 650,655;750,755;M1B, M2B) separated from the drive electrode (D;D1,D2) by a respective first measurement electrode (240,245; 640,645;740;745; M1A, M2A); wherein the EWOD device further comprises a control circuit connected to the drive electrode and the measurement electrodes, the control circuit configured to dynamically switch operation of the drive electrode and the measurement electrodes between a cytometry function and an electrowetting function. a substrate assembly that includes electrowetting electrodes ; and an impedance cytometry device incorporated into the substrate assembly; wherein the impedance cytometry device comprises an electrode arrangement provided in the substrate assembly in a co-planar fashion, the electrode arrangement comprising a drive electrode (D;D1,D2) and a plurality of measurement electrodes (240,245,250,255; 640,645,650,655;740,745,750,755; M1A,M1B,M2A,M2B) located in a same plane as the drive electrode (D;D1,D2); wherein the plurality of measurement electrodes includes at least two pairs (220,230;620,630;720,730) of measurement sub-electrodes, each pair of measurement sub-electrodes including a first measurement sub-electrode (240,245;640,645:740,745; M1A, M2A) positioned adjacent to the drive electrode (D;D1,D2), and a second measurement sub-electrode (250,255; 650,655;750,755;M1B, M2B) separated from the drive electrode (D;D1,D2) by a respective first measurement electrode (240,245; 640,645;740;745; M1A, M2A); wherein the EWOD device further comprises a control circuit connected to the drive electrode and the measurement electrodes, the control circuit configured to dynamically switch operation of the drive electrode and the measurement electrodes between a cytometry function and an electrowetting function.
Method for increasing the strength properties, preferably burst strength and SCT strength, of a paper or board product, manufactured from a fibrous web produced by a multilayer headbox, where an aqueous layer is formed between at least a first and a second fibre layer formed from fibrous stock suspension(s), and where feed water for the aqueous layer comprises ≤ 15 weight-% of cellulosic fibre material, calculated from the produced paper or board product, and at least one cationic polymer, characterised in that the method comprises an addition of an anionic additive, which is selected from a group comprising an anionic synthetic organic polymers, selected from copolymers of acrylamide and anionic monomers and carboxymethyl cellulose, to the feed water before formation of the aqueous layer.