mhurhangee/patent-ind-claim-en huggingface dataset:
A head-up display device comprising: an irradiation device configured to irradiate display light (L1); a reflector configured to reflect the display light; a supporting apparatus configured to hold the reflector movably from a standby position to a expansion position; a motor configured to supply drive force to the supporting apparatus so as to move the reflector; and a motor control apparatus configured to control a drive current supplied to the motor so as to control the motor, characterized in that the motor control apparatus is configured to continue to supply the drive current to the motor for maintaining excitation of a coil of the motor for holding the reflector in the expansion position, wherein the motor control apparatus is configured to control the drive current which is supplied to the motor and the drive current for holding the reflector in the expansion position is smaller than the drive current for moving the reflector from the standby position to the expansion position and from the expansion position to the standby position according to ON/OFF operation, and wherein after the reflector is held in the expansion position, the motor control apparatus controls the drive current which is supplied to the motor so that the drive current for moving the reflector according to adjustment operation is smaller than the drive current for moving the reflector from the standby position to the expansion position and from the expansion position to the standby position according to ON/OFF operation. an irradiation device configured to irradiate display light (L1); a reflector configured to reflect the display light; a supporting apparatus configured to hold the reflector movably from a standby position to a expansion position; a motor configured to supply drive force to the supporting apparatus so as to move the reflector; and a motor control apparatus configured to control a drive current supplied to the motor so as to control the motor, characterized in that the motor control apparatus is configured to continue to supply the drive current to the motor for maintaining excitation of a coil of the motor for holding the reflector in the expansion position, wherein the motor control apparatus is configured to control the drive current which is supplied to the motor and the drive current for holding the reflector in the expansion position is smaller than the drive current for moving the reflector from the standby position to the expansion position and from the expansion position to the standby position according to ON/OFF operation, and wherein after the reflector is held in the expansion position, the motor control apparatus controls the drive current which is supplied to the motor so that the drive current for moving the reflector according to adjustment operation is smaller than the drive current for moving the reflector from the standby position to the expansion position and from the expansion position to the standby position according to ON/OFF operation.
The method of the non-destructive examination of a layered structure comprising the following steps: a) the place of interest in the examined object is irradiated by a plane beam of penetrating radiation that hits the place of interest at an acute angle (α) of incidence, b) the fluorescent radiation and scattered particles emanating from the irradiated place of interest in the examined object are detected by at least one imaging camera for the penetrating radiation, c) the signal from the imaging camera is analysed to determine the results of the non-destructive measurement of the layered structure, characterized in that for step a) at least one side of the plane beam of penetrating radiation is modelled into a sharp edge and that within the framework of step a) the size of the angle (α) of incidence used falls within the range from 0° to 10°, and in addition, within the framework of step c) in the characteristic of the signal from the imaging camera , passages (δ) of the signal with an increasing and/or decreasing change of values along a propagation direction of the penetrating radiation are detected for the area of penetration of the plane beam of penetrating radiation at its sharp edge through the place of interest of the examined object , where, based on the number and behaviour of such changes of values, the number and the thickness (t) of individual layers comprising the layered structure in the irradiated place of interest of the examined object are determined. a) the place of interest in the examined object is irradiated by a plane beam of penetrating radiation that hits the place of interest at an acute angle (α) of incidence, b) the fluorescent radiation and scattered particles emanating from the irradiated place of interest in the examined object are detected by at least one imaging camera for the penetrating radiation, c) the signal from the imaging camera is analysed to determine the results of the non-destructive measurement of the layered structure,
An actuator cap (1; 50) for a fluid spray dispenser comprising an first body part adapted for connection to a container for a fluid to be dispensed and incorporating a spray channel arrangement ; and an second body part incorporating an actuator button , the second body part being rotatable with respect to the first body part from a first position in which the actuator button is non-elevated into a second position in which the actuator button is elevated and capable of depression to cause depression of a part of the spray channel arrangement ; characterised in that the actuator button defines a first cam profile along which a first cam follower defined by the first body part travels to cause elevation or retraction of the actuator button when the second body part is rotated; and the actuator button defines a second cam profile that bears against said part of the spray channel arrangement such that when the actuator button is in its elevated position and depressed the actuator button depresses said second cam profile and in turn depresses said part of the spray channel arrangement relative to the first body part to dispense the fluid from the container when in use. an first body part adapted for connection to a container for a fluid to be dispensed and incorporating a spray channel arrangement ; and an second body part incorporating an actuator button , the second body part being rotatable with respect to the first body part from a first position in which the actuator button is non-elevated into a second position in which the actuator button is elevated and capable of depression to cause depression of a part of the spray channel arrangement ; the actuator button defines a first cam profile along which a first cam follower defined by the first body part travels to cause elevation or retraction of the actuator button when the second body part is rotated; and the actuator button defines a second cam profile that bears against said part of the spray channel arrangement such that when the actuator button is in its elevated position and depressed the actuator button depresses said second cam profile and in turn depresses said part of the spray channel arrangement relative to the first body part to dispense the fluid from the container when in use.
Apparatus for layer-by-layer production of three-dimensional objects in a powder bed fusion method, comprising a build space , at least one energy source , a build field having a build space platform , and a build space container that laterally bounds the build space platform , wherein the build space platform has an upper side facing a powder and a lower side remote from the powder, wherein the upper side comprises a material having a thermal conductivity of at least 20 W/ (m·K) and the lower side a material having a thermal conductivity of not more than 0.5 W/(m·K), wherein the thermal conductivity is determined to ASTM E1461, and the contact area of the upper side of the build space platform with the powder is increased by at least 20% compared to the flat surface of a build space platform , characterized in that the build space platform exhibits at least one inlet and at least one outlet for a cooling medium.
A method for parallel analysis of nucleic acid from single cells, the method comprising: (a) receiving into a cell reservoir a liquid medium containing a suspension of cells to be analyzed; (b) pumping said liquid medium from an enclosed reservoir to flow through a cell cage array, having a plurality of cell cages, wherein each cell cage comprises a large opening adjacent to said cell reservoir and at least one small opening adjacent to said enclosed reservoir, wherein the liquid medium flows through large openings of said cell cages, that are large enough for a single cell to enter each cage on the side adjacent to the cell reservoir, and through the small openings of said cell cages, that are small enough to prohibit cells to exit on the side adjacent to the enclosed reservoir, thereby isolating single-cells in the cell cages of said cell cage array; (c) mounting said cell cage array on a microarray comprising a plurality of DNA spots, wherein each DNA spot comprises a probe and a nucleic acid barcode unique for said DNA spot; (d) introducing a buffer and inducing conditions for cell lysis and nucleic acid synthesis and amplification, to produce amplified nucleic acid molecules in the cages; and (e) sequencing the amplified nucleic acid molecules, and determining the nature of the amplified and sequenced nucleic acid molecules according to the nucleic acid barcode. (a) receiving into a cell reservoir a liquid medium containing a suspension of cells to be analyzed; (b) pumping said liquid medium from an enclosed reservoir to flow through a cell cage array, having a plurality of cell cages, wherein each cell cage comprises a large opening adjacent to said cell reservoir and at least one small opening adjacent to said enclosed reservoir, wherein the liquid medium flows through large openings of said cell cages, that are large enough for a single cell to enter each cage on the side adjacent to the cell reservoir, and through the small openings of said cell cages, that are small enough to prohibit cells to exit on the side adjacent to the enclosed reservoir, thereby isolating single-cells in the cell cages of said cell cage array; (c) mounting said cell cage array on a microarray comprising a plurality of DNA spots, wherein each DNA spot comprises a probe and a nucleic acid barcode unique for said DNA spot; (d) introducing a buffer and inducing conditions for cell lysis and nucleic acid synthesis and amplification, to produce amplified nucleic acid molecules in the cages; and (e) sequencing the amplified nucleic acid molecules, and determining the nature of the amplified and sequenced nucleic acid molecules according to the nucleic acid barcode.
Hydrocarbon-based polymer comprising two alkoxysilane end groups, said hydrocarbon-based polymer being of formula : in which: - each carbon-carbon bond of the chain noted as is a double bond or a single bond, in accordance with the valency rules of organic chemistry; - the groups R 2 , R 3 , R 4 and R 5 are each, independently of the other groups or otherwise, a hydrogen, a halo group, an alkoxycarbonyl group or an alkyl group, the groups R 2 to R 5 possibly being linked together as members of the same saturated or unsaturated ring or heterocycle, - m and p are integers each within a range from 0 to 5, preferably from 0 to 2, and even more preferably m and p are both equal to 1, the sum m + p itself being within a range from 0 to 10, preferably from 0 to 6, - R and R', which may be identical or different, each represent a linear or branched, preferably linear, alkyl group comprising from 1 to 4 and preferably from 1 to 2 carbon atoms, - Z is a divalent group chosen from alkylene groups, optionally interrupted with an ester function, and comprising from 1 to 22 and preferably from 1 to 6 carbon atoms, - q is an integer equal to 0 or 1, - r is an integer equal to 0, 1 or 2, and - n is an integer such that the number-average molar mass Mn of hydrocarbon-based polymer of formula is within a range from 400 to 50 000 g/mol, preferably from 600 to 20 000 g/mol, and the polydispersity index (PDI) of hydrocarbon-based polymer of formula is within a range from 1.0 to 2.0 and preferably from 1.45 to 1.85, both being measured by the method described in the description. - each carbon-carbon bond of the chain noted as is a double bond or a single bond, in accordance with the valency rules of organic chemistry; - the groups R 2 , R 3 , R 4 and R 5 are each, independently of the other groups or otherwise, a hydrogen, a halo group, an alkoxycarbonyl group or an alkyl group, the groups R 2 to R 5 possibly being linked together as members of the same saturated or unsaturated ring or heterocycle, - m and p are integers each within a range from 0 to 5, preferably from 0 to 2, and even more preferably m and p are both equal to 1, the sum m + p itself being within a range from 0 to 10, preferably from 0 to 6, - R and R', which may be identical or different, each represent a linear or branched, preferably linear, alkyl group comprising from 1 to 4 and preferably from 1 to 2 carbon atoms, - Z is a divalent group chosen from alkylene groups, optionally interrupted with an ester function, and comprising from 1 to 22 and preferably from 1 to 6 carbon atoms, - q is an integer equal to 0 or 1, - r is an integer equal to 0, 1 or 2, and - n is an integer such that the number-average molar mass Mn of hydrocarbon-based polymer of formula is within a range from 400 to 50 000 g/mol, preferably from 600 to 20 000 g/mol, and the polydispersity index (PDI) of hydrocarbon-based polymer of formula is within a range from 1.0 to 2.0 and preferably from 1.45 to 1.85, both being measured by the method described in the description.
A method for stabilizing marine clays comprising the following steps: a. Heating mussel shells at a temperature ranging from 90°C to 140°C, preferably at 105 °C, below than the mussel shell calcination temperature , b. Milling the heated mussel shells up to obtaining a powder having an appropriate particles size . c. Mixing the milled shell powder obtained in step b) with a cement, said cement being present in a quantity ranging from 15 % to 50 % by weight as referred to the total weight of cement and powder, in order to obtain a solid composition of powders . d. Obtaining a final product by mixing the solid composition of powders obtained in step c) with marine clays, wherein said marine clays sediments are used in their natural state in terms of content of water and are characterized by a negative consistency index, said consistency index being an index that defines material consistency and being calculated by using the following formula CI = w L − w / PI where w is the water content, w L the liquid limit and PI is the plasticity index, representing the range of water content values internally to which a soil is in the plastic status, said plasticity index being calculated on the basis of the difference between said w L the liquid limit and the plastic limit w P , and wherein said solid composition of powders is present in a percentage from 2 % to 20 % by weight as referred to the weight of the final product . a. Heating mussel shells at a temperature ranging from 90°C to 140°C, preferably at 105 °C, below than the mussel shell calcination temperature , b. Milling the heated mussel shells up to obtaining a powder having an appropriate particles size . c. Mixing the milled shell powder obtained in step b) with a cement, said cement being present in a quantity ranging from 15 % to 50 % by weight as referred to the total weight of cement and powder, in order to obtain a solid composition of powders . d. Obtaining a final product by mixing the solid composition of powders obtained in step c) with marine clays, wherein said marine clays sediments are used in their natural state in terms of content of water and are characterized by a negative consistency index, said consistency index being an index that defines material consistency and being calculated by using the following formula CI = w L − w / PI where w is the water content, w L the liquid limit and PI is the plasticity index, representing the range of water content values internally to which a soil is in the plastic status, said plasticity index being calculated on the basis of the difference between said w L the liquid limit and the plastic limit w P , and wherein said solid composition of powders is present in a percentage from 2 % to 20 % by weight as referred to the weight of the final product .
A method of receiving a downlink signal by a user equipment , UE, in a wireless communication system, the method comprising: receiving a physical broadcast channel, PBCH, signal in a synchronization signal block, SSB; receiving , in a first control resource set, CORESET, configured based on the PBCH signal, a first control channel which schedules system information; and obtaining the system information scheduled by the first control channel, receiving a UE-dedicated higher layer signal including frequency resources for a second CORESET, and time resources for the second CORESET; and receiving a second control channel in the second CORESET configured based on the UE-dedicated higher layer signal, the first CORESET is configured based on parameters included in the PBCH signal and based on predefined parameters which are not included in the PBCH signal, the parameters included in the PBCH signal comprise a bandwidth for the first CORESET and a number of symbols for the first CORESET, the bandwidth for the first CORESET and the number of symbols for the first CORESET are indicated as joint configuration by a bit value within the PBCH signal, the predefined parameters not included in the PBCH signal comprise a resource element group, REG, bundle size for the first CORESET, and an interleaver size for interleaving of the first CORESET, the REG bundle size for the first CORESET is fixed to 6-REG, and the interleaver size which corresponds to a row size of an interleaver for the interleaving of the first CORESET is fixed to 2. receiving a physical broadcast channel, PBCH, signal in a synchronization signal block, SSB; receiving , in a first control resource set, CORESET, configured based on the PBCH signal, a first control channel which schedules system information; and obtaining the system information scheduled by the first control channel, receiving a UE-dedicated higher layer signal including frequency resources for a second CORESET, and time resources for the second CORESET; and receiving a second control channel in the second CORESET configured based on the UE-dedicated higher layer signal, the first CORESET is configured based on parameters included in the PBCH signal and based on predefined parameters which are not included in the PBCH signal, the parameters included in the PBCH signal comprise a bandwidth for the first CORESET and a number of symbols for the first CORESET, the bandwidth for the first CORESET and the number of symbols for the first CORESET are indicated as joint configuration by a bit value within the PBCH signal, the predefined parameters not included in the PBCH signal comprise a resource element group, REG, bundle size for the first CORESET, and an interleaver size for interleaving of the first CORESET, the REG bundle size for the first CORESET is fixed to 6-REG, and the interleaver size which corresponds to a row size of an interleaver for the interleaving of the first CORESET is fixed to 2.
A seal for a gas turbine engine comprising: a housing ; and a coating having at least two layers with a bond layer to be positioned between a housing and a second erosion resistant layer , said second erosion resistant layer having a hardness greater than a hardness of said bond layer, characterised in that said bond layer having a bond strength greater than or equal to 200 psi (1380 kPa) and less than or equal to 2000 psi (13800 kPa), wherein the bond strength is a cohesive bond strength defined in a direction perpendicular to the axis of rotation of an engine in which the seal is to be deposited. a housing ; and a coating having at least two layers with a bond layer to be positioned between a housing and a second erosion resistant layer , said second erosion resistant layer having a hardness greater than a hardness of said bond layer, characterised in that said bond layer having a bond strength greater than or equal to 200 psi (1380 kPa) and less than or equal to 2000 psi (13800 kPa), wherein the bond strength is a cohesive bond strength defined in a direction perpendicular to the axis of rotation of an engine in which the seal is to be deposited.
Apparatus for changing an endless clothing of a machine for producing, treating or processing a flat web, in particular a paper, board or tissue web, having a traversing device for the preferably horizontal movement of the clothing in a clothing changing direction , comprising a pressure plate (3.1) and a mating pressure plate (3.2) interacting with and arranged opposite the latter, and wherein the pressure plate (3.1) and/or the mating pressure plate (3.2) is assigned a lifting device (3.3) for applying a surface pressure to the endless clothing that can be guided between the pressure plate (3.1) and the mating pressure plate (3.2), characterized in that as viewed in the clothing changing direction , a first supporting device is provided on the first side of the traversing device , and a second supporting device is provided on the second side, and in that each supporting device comprises a supporting plate (4.1, 5.1) and a mating supporting plate (4.2, 5.2) interacting with and arranged opposite the latter, and in that the supporting plate and/or the mating supporting plate (4.2, 5.2) of the supporting devices are assigned a further lifting device (4.3, 5.3) for applying a surface pressure to the endless clothing that can be guided between the supporting plate and the mating supporting plate (4.2, 5.2).
A method of wireless communication performed by a user equipment, UE , comprising: identifying a physical uplink control channel, PUCCH, resource configuration associated with an unlicensed spectrum, wherein the control channel resource configuration is associated with an indication of whether a resource to be used for an uplink control channel in the unlicensed spectrum is a fixed resource associated with a fixed frequency location, a floating resource associated with a fixed bandwidth and a variable frequency location, or an adaptive resource associated with a variable bandwidth and a variable frequency location; identifying the resource based at least in part on the control channel resource configuration; and transmitting uplink control information on the identified resource. identifying a physical uplink control channel, PUCCH, resource configuration associated with an unlicensed spectrum, wherein the control channel resource configuration is associated with an indication of whether a resource to be used for an uplink control channel in the unlicensed spectrum is a fixed resource associated with a fixed frequency location, a floating resource associated with a fixed bandwidth and a variable frequency location, or an adaptive resource associated with a variable bandwidth and a variable frequency location; identifying the resource based at least in part on the control channel resource configuration; and transmitting uplink control information on the identified resource.