mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-assisted method for ascertaining a movement of an apparatus , wherein the apparatus comprises a tool that is movable by way of translational and/or rotational axes of movement of the apparatus , wherein the method includes the following method steps: - ascertaining a first movement trajectory of the tool in a first configuration space , wherein a predetermined parameter of a movement of the tool is optimized when ascertaining the first movement trajectory , - checking whether the first movement trajectory satisfies at least one predetermined first boundary condition, - ascertaining a second movement trajectory of the tool in a second configuration space by transforming the first movement trajectory into the second configuration space if the first movement trajectory satisfies the predetermined first boundary condition, - checking whether the second movement trajectory satisfies at least one predetermined second boundary condition, - providing the first movement trajectory and/or the second movement trajectory for moving the tool if the second movement trajectory satisfies the predetermined second boundary condition, characterized in that a first partial movement of the tool is set by a first section of the first movement trajectory and a second partial movement of the tool is set by a second section of the second movement trajectory , wherein the partial movements are programmed by the setting in the respective configuration spaces . - ascertaining a first movement trajectory of the tool in a first configuration space , wherein a predetermined parameter of a movement of the tool is optimized when ascertaining the first movement trajectory , - checking whether the first movement trajectory satisfies at least one predetermined first boundary condition, - ascertaining a second movement trajectory of the tool in a second configuration space by transforming the first movement trajectory into the second configuration space if the first movement trajectory satisfies the predetermined first boundary condition, - checking whether the second movement trajectory satisfies at least one predetermined second boundary condition, - providing the first movement trajectory and/or the second movement trajectory for moving the tool if the second movement trajectory satisfies the predetermined second boundary condition, characterized in that a first partial movement of the tool is set by a first section of the first movement trajectory and a second partial movement of the tool is set by a second section of the second movement trajectory , wherein the partial movements are programmed by the setting in the respective configuration spaces . characterized in that a first partial movement of the tool is set by a first section of the first movement trajectory and a second partial movement of the tool is set by a second section of the second movement trajectory , wherein the partial movements are programmed by the setting in the respective configuration spaces .
System for constructing a laser lithography device, comprising a plurality of modules having optical and/or mechanical functions and a module support which is configured in such a way that for constructing the laser lithography device the plurality of modules can be attached to the module support ; wherein the module support comprises a bottom support plate and a top support plate and a spacer , wherein the spacer is arranged between the bottom support plate and the top support plate and fixes these in a defined position with respect to each other, wherein the bottom support plate and the top support plate each are configured in longitudinally extension along a longitudinal direction and each comprise at least one reference surface extending along the longitudinal direction , and wherein the modules each comprise a module support plate with an adjustment surface , wherein for attaching the module to the module support the adjustment surface is put against the reference surface . wherein the module support comprises a bottom support plate and a top support plate and a spacer , wherein the spacer is arranged between the bottom support plate and the top support plate and fixes these in a defined position with respect to each other, wherein the bottom support plate and the top support plate each are configured in longitudinally extension along a longitudinal direction and each comprise at least one reference surface extending along the longitudinal direction , and wherein the modules each comprise a module support plate with an adjustment surface , wherein for attaching the module to the module support the adjustment surface is put against the reference surface .
An artificial turf ground cover, comprising: a plurality of artificial turf fibers coupled to a backing to form an artificial turf structure; and an infill disposed between the artificial turf fibers characterized in that the infill is made of microporous oolitic aragonite particles having a surface that scatters light in multiple directions.
An exhaust gas analyzing apparatus comprising: an analyzer main body for analyzing exhaust gas; an exhaust gas introducing part (L1, L2, 411) for guiding the exhaust gas from an exhaust pipe passing the exhaust gas therethrough to the analyzer main body; a heater for heating the analyzer main body and a heater for heating the exhaust gas introducing part (L1, L2, 411); and a temperature regulating mechanism for controlling the heaters (413-417) to regulate temperatures of the analyzer main body and the exhaust gas introducing part (L1, L2, 411), characterized in that a first mode which has the temperature regulating mechanism regulate the temperatures of the analyzer main body and the exhaust gas introducing part (L1, L2, 411) to an analyzable temperature that is a predetermined temperature allowing a start of analysis of the exhaust gas, and a second mode which has the temperature regulating mechanism regulate the temperature of the analyzer main body to the analyzable temperature and turning off the heater for the exhaust gas introducing part (L1, L2, 411) can be selected. an analyzer main body for analyzing exhaust gas; an exhaust gas introducing part (L1, L2, 411) for guiding the exhaust gas from an exhaust pipe passing the exhaust gas therethrough to the analyzer main body; a heater for heating the analyzer main body and a heater for heating the exhaust gas introducing part (L1, L2, 411); and a temperature regulating mechanism for controlling the heaters (413-417) to regulate temperatures of the analyzer main body and the exhaust gas introducing part (L1, L2, 411), characterized in that a first mode which has the temperature regulating mechanism regulate the temperatures of the analyzer main body and the exhaust gas introducing part (L1, L2, 411) to an analyzable temperature that is a predetermined temperature allowing a start of analysis of the exhaust gas, and a second mode which has the temperature regulating mechanism regulate the temperature of the analyzer main body to the analyzable temperature and turning off the heater for the exhaust gas introducing part (L1, L2, 411) can be selected.
Sliding bearing comprising a bearing housing and a bearing piece mounted within a bearing opening of the bearing housing , which bearing piece forms an outer bearing surface which contacts an inner bearing surface of the bearing housing to form a contact gap , a first lubricant channel and a second lubricant channel for supplying lubricant to the contact gap being integrated into the bearing housing or into the bearing piece, which lubricant channels open into the inner bearing surface or the outer bearing surface at an axial distance from one another, a supply of lubricant via the first lubricant channel and the second lubricant channel being able to be influenced by means of a distribution device, and the axial displaceability of the bearing piece relative to the bearing housing being such that the outer bearing surface of the bearing piece or the inner bearing surface of the bearing housing - overlaps the mouth openings of the first lubricant channel and the second lubricant channel in a first sliding position of the sliding bearing, and - overlaps the mouth opening of the first lubricant channel and exposes the mouth opening of the second lubricant channel in a second sliding position of the sliding bearing and - exposes the mouth opening of the first lubricant channel and overlaps the mouth opening of the second lubricant channel in a third sliding position of the sliding bearing, characterized in that the bearing piece is mounted rotatably and axially displaceably within the bearing opening and a valve body is arranged in each of the lubricant channels , which closes the relevant lubricant channel when the associated mouth opening is exposed and which opens the relevant lubricant channel when the associated mouth opening is overlapped. - overlaps the mouth openings of the first lubricant channel and the second lubricant channel in a first sliding position of the sliding bearing, and - overlaps the mouth opening of the first lubricant channel and exposes the mouth opening of the second lubricant channel in a second sliding position of the sliding bearing and - exposes the mouth opening of the first lubricant channel and overlaps the mouth opening of the second lubricant channel in a third sliding position of the sliding bearing, characterized in that the bearing piece is mounted rotatably and axially displaceably within the bearing opening and a valve body is arranged in each of the lubricant channels , which closes the relevant lubricant channel when the associated mouth opening is exposed and which opens the relevant lubricant channel when the associated mouth opening is overlapped.
A method for performing sidelink, SL, communication by a first apparatus , the method including: transmitting (S1410), to a second apparatus through a physical sidelink control channel, PSCCH, a first sidelink control information including (i) reserved bits with a value set to zero, (ii) format information regarding a second sidelink control information, (iii) resource information regarding the second sidelink control information, and (iv) code rate information regarding the second sidelink control information; and transmitting (S1420), to the second apparatus through a physical sidelink shared channel, PSSCH, related to the PSCCH, the second sidelink control information including (i) information regarding a destination identifier, ID, and (ii) hybrid automatic repeat request, HARQ, feedback-related information. transmitting (S1410), to a second apparatus through a physical sidelink control channel, PSCCH, a first sidelink control information including (i) reserved bits with a value set to zero, (ii) format information regarding a second sidelink control information, (iii) resource information regarding the second sidelink control information, and (iv) code rate information regarding the second sidelink control information; and transmitting (S1420), to the second apparatus through a physical sidelink shared channel, PSSCH, related to the PSCCH, the second sidelink control information including (i) information regarding a destination identifier, ID, and (ii) hybrid automatic repeat request, HARQ, feedback-related information.
Apparatus for controlling insufflation of a vessel in the body of a human or animal subject with a fluid inflating medium, the apparatus comprising a primary pressure sensing means configured for monitoring the pressure of the inflating medium in the vessel , and a control means for controlling delivery of the inflating medium to the vessel in response to the pressure thereof monitored by the primary pressure sensing means , characterised in that the apparatus further comprises one of an adjacent vessel pressure sensing means for monitoring the pressure of the inflating medium in a vessel adjacent the vessel being insufflated and communicating with the vessel being insufflated, and an external vessel pressure sensing means for monitoring pressure in a vessel external of the vessel being insufflated, and within which the vessel being insufflated is located or is adjoining, and the control means is responsive to the corresponding one of the pressure of the inflating medium monitored by the adjacent vessel pressure sensing means for one of producing an alarm signal in response to the pressure monitored by the adjacent vessel pressure sensing means reaching an adjacent vessel predefined pressure, and controlling delivery of the inflating medium to the vessel being insufflated for preventing the pressure in the adjacent vessel exceeding the adjacent vessel predefined pressure, and the external vessel pressure sensing means for one of producing an alarm signal in response to the pressure in the external vessel reaching an external vessel predefined pressure, and controlling one of delivery of the inflating medium to the vessel being insufflated, a vacuum pump communicating with the external vessel, and an exhaust valve communicating with the external vessel for preventing the pressure in the external vessel exceeding the external vessel predefined pressure.
A multilayer composite structure comprising: a) at least one polymer-based capstock layer, wherein the at least one polymer-based capstock layer comprises at least one polymer being an acrylic polymer which is a copolymer of methyl methacrylate and 2-16 percent by weight of one or more C 1-4 acrylates; b) at least one polyester-based substrate layer, wherein the polyester-based substrate layer comprises at least one of polyethylene terephthalate (PET), polyethylene naphthalate (PEN), polybutylene terephthalate (PBT), or glycol-modified polyester (PETG); and wherein the multilayer composite structure comprises an outer layer and an inner layer, wherein the outer layer has an external surface, and wherein the polymer-based capstock layer is the outer layer and the polyester-based substrate layer is the inner layer. a) at least one polymer-based capstock layer, wherein the at least one polymer-based capstock layer comprises at least one polymer being an acrylic polymer which is a copolymer of methyl methacrylate and 2-16 percent by weight of one or more C 1-4 acrylates; b) at least one polyester-based substrate layer, wherein the polyester-based substrate layer comprises at least one of polyethylene terephthalate (PET), polyethylene naphthalate (PEN), polybutylene terephthalate (PBT), or glycol-modified polyester (PETG); and
A method for increasing expression of a protein of interest (POI) in a Bacillus cell comprising: (a) obtaining a modified Bacillus cell expressing an increased amount of a protein of interest (POI), wherein the modified Bacillus cell comprises at least one mutation in a rpoC gene encoding a variant RNA-polymerase (RNAP) β'-subunit polypeptide, wherein the variant β'-subunit polypeptide has at least 90% amino acid sequence identity to SEQ ID NO: 6 or 8 and comprises an aspartic acid to glycine substitution at amino acid residue 796 (D796G) of SEQ ID NO: 8; and (b) culturing the modified cell under conditions such that the POI is expressed, wherein the modified Bacillus cell expresses an increased amount of a POI relative to the expression of the POI in an unmodified Bacillus cell. (a) obtaining a modified Bacillus cell expressing an increased amount of a protein of interest (POI), wherein the modified Bacillus cell comprises at least one mutation in a rpoC gene encoding a variant RNA-polymerase (RNAP) β'-subunit polypeptide, wherein the variant β'-subunit polypeptide has at least 90% amino acid sequence identity to SEQ ID NO: 6 or 8 and comprises an aspartic acid to glycine substitution at amino acid residue 796 (D796G) of SEQ ID NO: 8; and (b) culturing the modified cell under conditions such that the POI is expressed, wherein the modified Bacillus cell expresses an increased amount of a POI relative to the expression of the POI in an unmodified Bacillus cell.
A loom provided with a selvage yarn shedding apparatus comprising: two support bodies (20 and 20) each having carrier rods configured to support a heddle into which a selvage yarn is inserted and a slide guide to which the carrier rods are attached at both end portions; a drive motor configured to drive in forward and reverse rotations; a support frame fixed to a loom frame and comprising a guide part configured to guide displacement of the slide guides in an upper and lower direction, the drive motor being attached to the support frame ; and a motion conversion mechanism configured to connect an output shaft of the drive motor and both the support bodies (20 and 20) each other and to convert rotation of the output shaft into reciprocating motion in the upper and lower direction of each support body, wherein each of the support bodies (20 and 20) comprises a connecting part including an extension portion provided above the carrier rod and extending from the slide guide in a longitudinal direction of the carrier rod toward a side where the heddle exists, where the connecting part is configured to connect the slide guide and the motion conversion mechanism to each other at the extension portion .
A method, in a wireless communication device, the method comprising: transmitting a resource assignment , the resource assignment assigning a first set of time-frequency resources in a subframe for regular latency data transmission; transmitting low latency data within a second set of time-frequency resources in the subframe, the second set at least partially overlapping with the first set, where low latency data has a lower latency than regular latency data; and transmitting a marker signal , the marker signal indicating a presence of low latency data transmission in the subframe. transmitting a resource assignment , the resource assignment assigning a first set of time-frequency resources in a subframe for regular latency data transmission; transmitting low latency data within a second set of time-frequency resources in the subframe, the second set at least partially overlapping with the first set, where low latency data has a lower latency than regular latency data; and transmitting a marker signal , the marker signal indicating a presence of low latency data transmission in the subframe.
A 2-phenyl-1,3-propanediol diglycidyl ether derivative of the formula I where R1 is an alkyl group having 1 to 5 C atoms or an aryl group having 6 to 10 C atoms, R2 to R6 independently of one another are each a hydrogen atom or an alkyl group having 1 to 4 C atoms, R7 is a hydrogen atom or a glycidyl group, and n is 0 to 30. R1 is an alkyl group having 1 to 5 C atoms or an aryl group having 6 to 10 C atoms, R2 to R6 independently of one another are each a hydrogen atom or an alkyl group having 1 to 4 C atoms, R7 is a hydrogen atom or a glycidyl group, and n is 0 to 30.
An assembly comprising: a housing ; a printed circuit board within the housing ; a center shaft extending through the housing ; a gear coupled to the center shaft , the gear positioned off-center relative to a central rotational axis extending through the center shaft ; a magnet coupled to the gear ; a first Hall effect sensor positioned adjacent the gear and concentric with the magnet ; and a second Hall effect sensor positioned adjacent the center shaft and concentric with the central rotational axis, wherein the first Hall effect sensor and the second Hall effect sensor are separated by a magnetic shield in direct contact with an exterior surface of the gear , wherein the magnetic shield extends concentrically about the magnet along the exterior surface of the gear wherein the first Hall effect sensor and the second Hall effect sensor are directly coupled to an internal side of the printed circuit board ; and a third Hall effect sensor directly coupled to an external side of the printed circuit board , wherein the central rotational axis extends through the third Hall effect sensor and the second Hall effect sensor . a housing ; a printed circuit board within the housing ; a center shaft extending through the housing ; a gear coupled to the center shaft , the gear positioned off-center relative to a central rotational axis extending through the center shaft ; a magnet coupled to the gear ; a first Hall effect sensor positioned adjacent the gear and concentric with the magnet ; and a second Hall effect sensor positioned adjacent the center shaft and concentric with the central rotational axis, wherein the first Hall effect sensor and the second Hall effect sensor are separated by a magnetic shield in direct contact with an exterior surface of the gear , wherein the magnetic shield extends concentrically about the magnet along the exterior surface of the gear wherein the first Hall effect sensor and the second Hall effect sensor are directly coupled to an internal side of the printed circuit board ; and a third Hall effect sensor directly coupled to an external side of the printed circuit board , wherein the central rotational axis extends through the third Hall effect sensor and the second Hall effect sensor .
A circuit for an ultrasonic electronic cigarette, comprising an ultrasonic atomization sheet (J), a control circuit , a first drive oscillation circuit and a power circuit , the control circuit being electrically connected to a first end of the ultrasonic atomization sheet (J) through the first drive oscillation circuit , the control circuit and the first drive oscillation circuit being electrically connected to the power circuit , characterised in that the circuit for the ultrasonic electronic cigarette further comprises a second drive oscillation circuit , the control circuit is electrically connected to a second end of the ultrasonic atomization sheet (J) through the second drive oscillation circuit , and the second drive oscillation circuit is electrically connected to the power circuit .
A method of determining the temperature of a subsea infrastructure, comprising: performing remote temperature measurements of water surrounding a subsea infrastructure; obtaining a solid model of the subsea infrastructure via a metrological scan; running a thermal simulation for an assumed temperature profile along a surface of the subsea infrastructure using a forward model of the thermal heat transfer from the subsea infrastructure to the water surrounding it; and using data obtained from the remote temperature measurements, the metrological scan, and the simulation to determine a temperature profile of the subsea infrastructure. performing remote temperature measurements of water surrounding a subsea infrastructure; obtaining a solid model of the subsea infrastructure via a metrological scan; running a thermal simulation for an assumed temperature profile along a surface of the subsea infrastructure using a forward model of the thermal heat transfer from the subsea infrastructure to the water surrounding it; and using data obtained from the remote temperature measurements, the metrological scan, and the simulation to determine a temperature profile of the subsea infrastructure.