mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum-processing device comprising: a chamber to be evacuated; an operating part that sets a condition for evacuating the chamber; a pump that evacuates the chamber based on the evacuation condition, the pump having a plurality of pump outputs (Po1, Po2, ...); and a control portion that performs an evacuation control of the pump so as to switch a pump output to a higher pump output based on a fact that an amount of decrease in degree of vacuum per unit time, at a time of evacuation of the chamber using a predetermined pump output, has become smaller than a reference value (Xrf), characterized in that the reference value (Xrf) is set by the control portion as follows: the control portion starts evacuation using the pump output set in the operation part , and then calculates the amount of decrease in degree of vacuum per unit time after a predetermined time elapses from the output of a vacuum pressure sensor , and sets the calculated value as the reference value (Xrf). a chamber to be evacuated; an operating part that sets a condition for evacuating the chamber; a pump that evacuates the chamber based on the evacuation condition, the pump having a plurality of pump outputs (Po1, Po2, ...); and a control portion that performs an evacuation control of the pump so as to switch a pump output to a higher pump output based on a fact that an amount of decrease in degree of vacuum per unit time, at a time of evacuation of the chamber using a predetermined pump output, has become smaller than a reference value (Xrf), characterized in that the reference value (Xrf) is set by the control portion as follows: the control portion starts evacuation using the pump output set in the operation part , and then calculates the amount of decrease in degree of vacuum per unit time after a predetermined time elapses from the output of a vacuum pressure sensor , and sets the calculated value as the reference value (Xrf).
A mobile computing device (102; 1102; 1202; 1302; 1402; 1502), comprising: a front surface having a display (108; 1508); and a rear surface (106; 1204; 1304) opposite the front surface and coupled to the front surface by an edge region, the rear surface (106; 1204; 1304) including: a first magnetically susceptible region (1284; 1384; 1584), and a second magnetically susceptible region (1282; 1382; 1582) adjacent to the first magnetically susceptible region (1284; 1384; 1584), the second magnetically susceptible region (1282; 1382; 1582) having a greater magnetic susceptibility than the first magnetically susceptible region (1284; 1384; 1584), wherein the first magnetically susceptible region (1284; 1384; 1584) allows a slidable portion (160; 1560) of an adjustable stand (120; 720; 820; 920; 1020; 1120; 1520) formed with a magnetically susceptible material to slide along the rear surface (106; 1204; 1304) in a translational dimension (T) more readily than the second magnetically susceptible region (1282; 1382; 1582). a front surface having a display (108; 1508); and a rear surface (106; 1204; 1304) opposite the front surface and coupled to the front surface by an edge region, the rear surface (106; 1204; 1304) including: a first magnetically susceptible region (1284; 1384; 1584), and a second magnetically susceptible region (1282; 1382; 1582) adjacent to the first magnetically susceptible region (1284; 1384; 1584), the second magnetically susceptible region (1282; 1382; 1582) having a greater magnetic susceptibility than the first magnetically susceptible region (1284; 1384; 1584), a first magnetically susceptible region (1284; 1384; 1584), and a second magnetically susceptible region (1282; 1382; 1582) adjacent to the first magnetically susceptible region (1284; 1384; 1584), the second magnetically susceptible region (1282; 1382; 1582) having a greater magnetic susceptibility than the first magnetically susceptible region (1284; 1384; 1584), wherein the first magnetically susceptible region (1284; 1384; 1584) allows a slidable portion (160; 1560) of an adjustable stand (120; 720; 820; 920; 1020; 1120; 1520) formed with a magnetically susceptible material to slide along the rear surface (106; 1204; 1304) in a translational dimension (T) more readily than the second magnetically susceptible region (1282; 1382; 1582).
A compound, having the formula: wherein R 1 independently is: and R 3 , R 4 , R 5 , R 7 , R 8 , R 9 , and R 10 are each independently is hydrogen, alkyl, alkene, alkyne, halogen, alkoxy with or without one or more carbon-carbon double or triple bonds, cyano group, or nitrile group, and R 2 and R 6 are each independently is hydrogen, alkyl, alkene, alkyne, fluorine, alkoxy with or without one or more carbon-carbon double or triple bonds, cyano group, or nitrile group.
A device comprising: a first portion to receive first color ink particles within a first fluid onto a substrate to form an image; a first charge source to emit first polarity charges to charge the first color ink particles to move through the first fluid to become electrostatically fixed relative to the substrate; a second portion to receive, relative to the substrate, second ink particles within a second fluid to further form the image; and a second charge source to emit opposite, second polarity charges to charge the second ink particles to move through at least the second carrier fluid and to charge the first color ink particles to electrostatically fix both the first and second color ink particles, relative to the substrate; the device being characterized in that along a travel path of the substrate, the second portion is downstream from the first charge source and the second charge source is downstream from the second portion. a first portion to receive first color ink particles within a first fluid onto a substrate to form an image; a first charge source to emit first polarity charges to charge the first color ink particles to move through the first fluid to become electrostatically fixed relative to the substrate; a second portion to receive, relative to the substrate, second ink particles within a second fluid to further form the image; and a second charge source to emit opposite, second polarity charges to charge the second ink particles to move through at least the second carrier fluid and to charge the first color ink particles to electrostatically fix both the first and second color ink particles, relative to the substrate; the device being characterized in that along a travel path of the substrate, the second portion is downstream from the first charge source and the second charge source is downstream from the second portion.
An X-ray computed tomography device, in which an X-ray source and/or an X-ray detector is moveably mounted with respect to an object to be investigated by means of a magnetic bearing having a first bearing ring and a second bearing ring , which is arranged concentrically in relation to the first bearing ring , wherein the first bearing ring and the second bearing ring are mounted by means of electromagnets so as to be rotatable with respect to each other about an axis of rotation (D), wherein the first bearing ring comprises a first magnet row and a second magnet row , wherein the magnet rows each comprise electromagnets arranged at a distance from one another in a circumferential direction of the first bearing ring , wherein the electromagnets of the magnet rows are oriented such that they can each exert a magnetic force on the second bearing ring , which magnetic force is oriented transversely to the axis of rotation (D) and transversely to a radial plane (R) which is arranged perpendicularly to the axis of rotation (D), characterized in that the electromagnets of the first magnet row , with respect to a radial plane (R), are arranged asymmetrically to the electromagnets of the second magnet row and/or the electromagnets of the first magnet row and the electromagnets of the second magnet row are of a differing design, wherein the electromagnets of the first and the second magnet rows have a different number of turns, or a different coil size and/or a different coil core size, or a different width and/or height and/or length, or a different dimensioning of their pole shoes.
Stereolithography machine comprising: • a container for a fluid substance suited to be solidified through exposure to predefined radiation ; • a laser source apt to emit a beam of said predefined radiation ; • a vector scanning optical unit configured to perform a vector scanning of a reference surface arranged inside said container according to a desired vector data image by means of said predefined radiation; • a memory to store said vector data image representative of an image to be scanned on said reference surface; • a logic control unit configured for controlling said vector scanning optical unit and/or said laser source in such a way as to expose a predefined portion of said reference surface to said radiation according to said vector data image; wherein said vector scanning optical unit comprises a first and a second micro-opto-electro-mechanical systems (MOEMS) arranged in series one after the other with respect to a travelling path of said predefined radiation, each MOEMS system comprising: • a mirror having a diameter comprised between about 2 mm and about 8 mm associated with a supporting structure through articulation means configured so as to define for said mirror a rotation axis (X1, X2); • an actuator suited to move said mirror around said rotation axis (X1, X2) in a quasi-static manner at an angular speed so that a corresponding marking speed of said laser beam on said reference surface is comprised between about 0.5 m/s and about 3 m/s when said laser source is emitting said predetermined radiation during said vector scanning; and wherein • the rotation axis (X1) of the mirror of the first MOEMS system is not parallel to the rotation axis (X2) of the mirror of the second MOEMS system . • a container for a fluid substance suited to be solidified through exposure to predefined radiation ; • a laser source apt to emit a beam of said predefined radiation ; • a vector scanning optical unit configured to perform a vector scanning of a reference surface arranged inside said container according to a desired vector data image by means of said predefined radiation; • a memory to store said vector data image representative of an image to be scanned on said reference surface; • a logic control unit configured for controlling said vector scanning optical unit and/or said laser source in such a way as to expose a predefined portion of said reference surface to said radiation according to said vector data image; • a mirror having a diameter comprised between about 2 mm and about 8 mm associated with a supporting structure through articulation means configured so as to define for said mirror a rotation axis (X1, X2); • an actuator suited to move said mirror around said rotation axis (X1, X2) in a quasi-static manner at an angular speed so that a corresponding marking speed of said laser beam on said reference surface is comprised between about 0.5 m/s and about 3 m/s when said laser source is emitting said predetermined radiation during said vector scanning; • the rotation axis (X1) of the mirror of the first MOEMS system is not parallel to the rotation axis (X2) of the mirror of the second MOEMS system .
A thermal cycling device comprising: a) a sample location configured to receive multiple samples; b) a hollow light pipe , which comprises a light pipe section comprising a first and a second end, wherein said light pipe section is configured to homogenize spatial intensity distribution of electromagnetic radiation by the means of reflection; c) a first heating means being a contact heat source, wherein said first heating means is configured to bring a sample at said sample location to at least about a first temperature; d) a second heating means being a source of electromagnetic radiation, wherein said second heating means is configured to simultaneously bring multiple samples at said sample location to a second temperature by directing the electromagnetic radiation to the first light pipe section end and the light pipe section is configured to direct said electromagnetic radiation having homogenized spatial intensity distribution through its second end simultaneously to the multiple samples received at the sample location . a) a sample location configured to receive multiple samples; b) a hollow light pipe , which comprises a light pipe section comprising a first and a second end, wherein said light pipe section is configured to homogenize spatial intensity distribution of electromagnetic radiation by the means of reflection; c) a first heating means being a contact heat source, wherein said first heating means is configured to bring a sample at said sample location to at least about a first temperature; d) a second heating means being a source of electromagnetic radiation, wherein said second heating means is configured to simultaneously bring multiple samples at said sample location to a second temperature by directing the electromagnetic radiation to the first light pipe section end and the light pipe section is configured to direct said electromagnetic radiation having homogenized spatial intensity distribution through its second end simultaneously to the multiple samples received at the sample location .
A memory device, comprising: a plurality of word line layers (WLD4-WLD2) which are vertically spaced apart from one another by dielectric layers (DL3-DL16) in a stack ; and a set of NAND strings (700n-703n, 710n-713n, 720n-723n, 730n-733n) extending through the plurality of word line layers, the set of NAND strings are arranged between a first region and a second region which extend vertically in the stack, wherein the first vertically extending region and the second vertically extending region are either an isolation region or a local interconnect , wherein the set of NAND strings comprises NAND strings in a first edge region of the stack adjacent to the first vertically extending region, a second edge region of the stack adjacent to the second vertically extending region, and an interior region between the first and second edge regions, and wherein each NAND string of the set of NAND strings comprises in the first and second edge regions a channel which is doped, and in the interior region between the first and second edge regions a channel which is undoped, characterised in that : each NAND string in the set of NAND strings comprises a blocking oxide layer , wherein the blocking oxide layers of NAND strings in the first and second edge regions are thinner than the blocking oxide layers of NAND strings in the interior region. a plurality of word line layers (WLD4-WLD2) which are vertically spaced apart from one another by dielectric layers (DL3-DL16) in a stack ; and a set of NAND strings (700n-703n, 710n-713n, 720n-723n, 730n-733n) extending through the plurality of word line layers, the set of NAND strings are arranged between a first region and a second region which extend vertically in the stack, wherein the first vertically extending region and the second vertically extending region are either an isolation region or a local interconnect , wherein the set of NAND strings comprises NAND strings in a first edge region of the stack adjacent to the first vertically extending region, a second edge region of the stack adjacent to the second vertically extending region, and an interior region between the first and second edge regions, and wherein each NAND string of the set of NAND strings comprises in the first and second edge regions a channel which is doped, and in the interior region between the first and second edge regions a channel which is undoped, characterised in that : each NAND string in the set of NAND strings comprises a blocking oxide layer , wherein the blocking oxide layers of NAND strings in the first and second edge regions are thinner than the blocking oxide layers of NAND strings in the interior region.
A method of labeling a DNA at a target sequence, comprising: contacting a DNA comprising a first target sequence with: a first dCas protein; and a first labeled guide RNA (gRNA) comprising a first crRNA and a first tracrRNA comprising a first label, wherein the first crRNA is complementary to the first target sequence or a portion thereof; incubating the DNA, the first dCas protein, and the first labeled gRNA, whereby the first dCas protein, the DNA, and the first labeled gRNA form a complex wherein the first crRNA is hybridized to the first target sequence or the portion thereof, thereby labeling the DNA at the first target sequence to form a labeled DNA; and linearizing the labeled DNA in a fluidic nanochannel, wherein the DNA remains intact upon said linearizing. contacting a DNA comprising a first target sequence with: a first dCas protein; and a first labeled guide RNA (gRNA) comprising a first crRNA and a first tracrRNA comprising a first label, wherein the first crRNA is complementary to the first target sequence or a portion thereof; a first dCas protein; and a first labeled guide RNA (gRNA) comprising a first crRNA and a first tracrRNA comprising a first label, wherein the first crRNA is complementary to the first target sequence or a portion thereof; incubating the DNA, the first dCas protein, and the first labeled gRNA, whereby the first dCas protein, the DNA, and the first labeled gRNA form a complex wherein the first crRNA is hybridized to the first target sequence or the portion thereof, thereby labeling the DNA at the first target sequence to form a labeled DNA; and linearizing the labeled DNA in a fluidic nanochannel, wherein the DNA remains intact upon said linearizing.
A peeling apparatus for at least partially removing an outer circumferential surface of an at least approximately cylindrical body, in particular of a cylindrical plastic tube, with a C-shaped or C-like shaped base body , which comprises two free ends as well as an inner surface merging into the free ends for forming a peripheral opening at the base body , wherein the cylindrical body is insertable between the free ends and concentrically positionable to a center point of an inner circle predetermined by the inner surface of the base body , and wherein at least one outer support is arranged at each of the free ends , which outer support is supported on an outer axis and bears against the cylindrical body when the latter is positioned concentric to the center point of the inner circle , with at least one recess formed on the inner surface of the base body , with at least one central support formed on the base body or arranged thereon, spaced from the free ends and supported on a central axis , and with a blade holder which is formed on or arranged on the base body and in which a blade can be clamped or is clamped in such a way that the blade projects beyond the inner circle defined by the inner surface and thus at least temporarily contacts or removes the outer circumferential surface of an inserted cylindrical body. with a C-shaped or C-like shaped base body , which comprises two free ends as well as an inner surface merging into the free ends for forming a peripheral opening at the base body , wherein the cylindrical body is insertable between the free ends and concentrically positionable to a center point of an inner circle predetermined by the inner surface of the base body , and wherein at least one outer support is arranged at each of the free ends , which outer support is supported on an outer axis and bears against the cylindrical body when the latter is positioned concentric to the center point of the inner circle , with at least one recess formed on the inner surface of the base body , with at least one central support formed on the base body or arranged thereon, spaced from the free ends and supported on a central axis , and with a blade holder which is formed on or arranged on the base body and in which a blade can be clamped or is clamped in such a way that the blade projects beyond the inner circle defined by the inner surface and thus at least temporarily contacts or removes the outer circumferential surface of an inserted cylindrical body.
Method for balancing the voltage of multiple series-connected electrochemical cells of an electrical storage system of a hybrid electric vehicle comprising discharging the electrical storage system by operating at least one large electrical machine of the vehicle at vehicle standstill by no torque being transmitted to a driveshaft of the vehicle, until the state of charge of the electrical storage system or the cell having the lowest state of charge has reached a predetermined level , wherein the at least one large electrical machine is the electrical traction machine or the main electrical generator of the hybrid electric vehicle, characterized by , subsequently balancing the voltage of the cells, wherein discharge of the electrical storage system is realised by setting a combustion engine of the hybrid electric vehicle in a non-combustion mode and rotating a crankshaft of the combustion engine by means of the electrical traction machine or the main electrical generator, wherein, when the hybrid electric vehicle has a parallel propulsion layout, the large electrical machine is the electrical traction machine and, thereby, during discharge the driveshaft downstream a transmission is disconnected from the crankshaft of the combustion engine and, wherein, when the hybrid electric vehicle has a serial propulsion layout with no mechanical connection between the combustion engine and driving wheels, the large electrical machine is the electrical generator.
Electrical connection device for connecting at least one electric cable (C), comprising a base and at least one connection terminal mounted in the base , the connection terminal comprising a conductive part , a body and at least one spring adapted to maintain at least one electric cable (C) in contact with the conductive part , characterised in that the body of the terminal is divided into two half-cases which are fitted together, and in that the base defines a housing which receives the body of each terminal , the conductive part being fixed in the housing , and the conductive part comprises an attachment member which holds the body in its housing of the base by resilient cooperation with a portion of the body .
A mixing bowl assembly , comprising: a bowl ; a lid configured to be operably coupled to the bowl and having an outer circumferential frame and an inner circumferential lip , the lid defining a depressed support surface proximate the inner circumferential lip ; characterized in that it further comprises a planar wooden trivet configured to be selectively disposed on the depressed support surface of the lid , the planar wooden trivet having a perimeter rim configured to engage the inner circumferential lip of the lid ; and a glass dome configured to be selectively disposed within the bowl and having a handgrip , the glass dome being configured to be selectively coupled to the perimeter rim of the planar wooden trivet proximate to the outer circumferential frame of the lid . a bowl ; a lid configured to be operably coupled to the bowl and having an outer circumferential frame and an inner circumferential lip , the lid defining a depressed support surface proximate the inner circumferential lip ; characterized in that it further comprises a planar wooden trivet configured to be selectively disposed on the depressed support surface of the lid , the planar wooden trivet having a perimeter rim configured to engage the inner circumferential lip of the lid ; and a glass dome configured to be selectively disposed within the bowl and having a handgrip , the glass dome being configured to be selectively coupled to the perimeter rim of the planar wooden trivet proximate to the outer circumferential frame of the lid .