mhurhangee/patent-ind-claim-en huggingface dataset:
A discharge container comprising: a container body in which contents are stored; a discharger including a stem provided upright in a mouth portion of the container body to be movable downward in a state where the stem is pushed upward; an exterior portion including a top wall portion which is disposed above the stem and through which a discharge hole passes in a vertical direction, the exterior portion being configured to discharge the contents from the discharge hole to a discharge surface of the top wall portion facing upward; and an inner plate provided in the exterior portion to be movable, wherein the exterior portion is attached to the container body , a locking portion configured to be locked to the stem and to move down the stem as the inner plate moves down and a push-down portion which protrudes toward an outside in a radial direction are provided on the inner plate , and the pushing-down portion is disposed on an outside of the exterior portion through an insertion hole formed in a circumferential wall portion of the exterior portion , characterized in that the inner plate forms a diffusion chamber , which is configured to diffuse the contents from the stem in the radial direction and supply the contents to the discharge hole , between the inner plate and a supply surface facing downward in the top wall portion . a container body in which contents are stored; a discharger including a stem provided upright in a mouth portion of the container body to be movable downward in a state where the stem is pushed upward; an exterior portion including a top wall portion which is disposed above the stem and through which a discharge hole passes in a vertical direction, the exterior portion being configured to discharge the contents from the discharge hole to a discharge surface of the top wall portion facing upward; and an inner plate provided in the exterior portion to be movable, wherein the exterior portion is attached to the container body , a locking portion configured to be locked to the stem and to move down the stem as the inner plate moves down and a push-down portion which protrudes toward an outside in a radial direction are provided on the inner plate , and the pushing-down portion is disposed on an outside of the exterior portion through an insertion hole formed in a circumferential wall portion of the exterior portion , characterized in that the inner plate forms a diffusion chamber , which is configured to diffuse the contents from the stem in the radial direction and supply the contents to the discharge hole , between the inner plate and a supply surface facing downward in the top wall portion .
A material sprayer comprising: a hopper module including: a hopper frame ; a plurality of hopper wheels attached to the hopper frame and configured to support the hopper frame relative to a ground surface; and a hopper supported by the hopper frame; a power module mountable and dismountable from the hopper frame, the power module including: a drive ; a power frame ; a power module wheel attached to the power frame; and a pump connected to and configured to be powered by the drive; wherein the pump includes a pump inlet configured to interface with the hopper with the power module mounted on the hopper frame such that the pump can draw material from the hopper; wherein the power module wheel is configured to support the power module on the ground surface when the power module is dismounted from the hopper frame; and characterized in that the hopper module is configured to support the power module with the power module mounted on the hopper frame such that the power module wheel does not contact the ground surface. a hopper module including: a hopper frame ; a plurality of hopper wheels attached to the hopper frame and configured to support the hopper frame relative to a ground surface; and a hopper supported by the hopper frame; a hopper frame ; a plurality of hopper wheels attached to the hopper frame and configured to support the hopper frame relative to a ground surface; and a hopper supported by the hopper frame; a power module mountable and dismountable from the hopper frame, the power module including: a drive ; a power frame ; a power module wheel attached to the power frame; and a pump connected to and configured to be powered by the drive; a drive ; a power frame ; a power module wheel attached to the power frame; and a pump connected to and configured to be powered by the drive; wherein the pump includes a pump inlet configured to interface with the hopper with the power module mounted on the hopper frame such that the pump can draw material from the hopper; wherein the power module wheel is configured to support the power module on the ground surface when the power module is dismounted from the hopper frame; and characterized in that the hopper module is configured to support the power module with the power module mounted on the hopper frame such that the power module wheel does not contact the ground surface.
An ambient light detection method, applied to a terminal, wherein the terminal comprises a display screen and an first ambient light sensor; the first ambient light sensor is located under the display screen, and a display area of the display screen comprises a first area and a second area; the first area comprises an area for receiving by the first ambient light sensor ambient light, and the second area is a part of an area, other than the first area, in the display area; and the method comprises the steps of: displaying, by the terminal, in the first area a black picture at least two times during a process of refreshing one frame of an image frame picture; displaying, by the terminal when the first area displays the black picture, the image frame picture in the second area; displaying, by the terminal, in the first area the image frame picture in an interval between consecutively displaying the black picture in the first area; detecting, by the terminal, an intensity of the ambient light when the first area displays the black picture and the image frame picture; and obtaining, by the terminal, the intensity of the ambient light, wherein the intensity of the ambient light is detected by the first ambient light sensor when the first area displays the black picture; wherein the obtaining, by the terminal, the intensity of the ambient light comprises: using, by the terminal, the intensity of the ambient light detected by the first ambient light sensor when the first area displays the black picture. displaying, by the terminal, in the first area a black picture at least two times during a process of refreshing one frame of an image frame picture; displaying, by the terminal when the first area displays the black picture, the image frame picture in the second area; displaying, by the terminal, in the first area the image frame picture in an interval between consecutively displaying the black picture in the first area; detecting, by the terminal, an intensity of the ambient light when the first area displays the black picture and the image frame picture; and obtaining, by the terminal, the intensity of the ambient light, wherein the intensity of the ambient light is detected by the first ambient light sensor when the first area displays the black picture; wherein the obtaining, by the terminal, the intensity of the ambient light comprises: using, by the terminal, the intensity of the ambient light detected by the first ambient light sensor when the first area displays the black picture.
A method used to transfer partitions to outer packagings intended for articles, wherein the method comprises at least the following steps: - transporting a multitude of outer packagings along at least one transport path , - withdrawing partitions from at least one supply of partitions , placing the multiple partitions withdrawn from the at least one supply into an outer packaging assigned to a particular partition in the area of the at least one transport path , characterised in that a plurality of partitions are withdrawn from at least one specific supply , wherein, temporally after withdrawal of all of the multiple partitions, these multiple partitions, having been withdrawn from the particular at least one specific supply, are moved together toward the at least one transport path, and, after having been moved together toward the at least one transport path , are placed simultaneously or at least approximately simultaneously into immediately successive or immediately adjacent outer packagings. - transporting a multitude of outer packagings along at least one transport path , - withdrawing partitions from at least one supply of partitions , placing the multiple partitions withdrawn from the at least one supply into an outer packaging assigned to a particular partition in the area of the at least one transport path , characterised in that a plurality of partitions are withdrawn from at least one specific supply , wherein, temporally after withdrawal of all of the multiple partitions, these multiple partitions, having been withdrawn from the particular at least one specific supply, are moved together toward the at least one transport path, and, after having been moved together toward the at least one transport path , are placed simultaneously or at least approximately simultaneously into immediately successive or immediately adjacent outer packagings. placing the multiple partitions withdrawn from the at least one supply into an outer packaging assigned to a particular partition in the area of the at least one transport path , characterised in that a plurality of partitions are withdrawn from at least one specific supply , wherein, temporally after withdrawal of all of the multiple partitions, these multiple partitions, having been withdrawn from the particular at least one specific supply, are moved together toward the at least one transport path, and, after having been moved together toward the at least one transport path , are placed simultaneously or at least approximately simultaneously into immediately successive or immediately adjacent outer packagings.
A method for operating a hydrocarbon reservoir monitoring system, the method comprising: coupling optical energy from an optical source to a sensor cable deployed proximate to a sea floor beneath a water body ; coupling a portion of the optical energy in the sensor cable into a segment of a first optical waveguide of an interferometric device deployed beneath the water body, wherein the interferometric device is exposed to hydrostatic stress associated with depth of the water above the sea floor ; coupling a portion of the optical energy from the first optical waveguide of the interferometric device to a second optical waveguide of the interferometric device ; and detecting an optical interferometric signal from a segment of the second optical waveguide of the interferometric device ; characterized by delaying the optical energy from the optical source using a delay element disposed within one of the first optical waveguide or the second optical waveguide based on a modulation depth of an angle modulation applied to the optical energy to provide dispersion compensation. coupling optical energy from an optical source to a sensor cable deployed proximate to a sea floor beneath a water body ; coupling a portion of the optical energy in the sensor cable into a segment of a first optical waveguide of an interferometric device deployed beneath the water body, wherein the interferometric device is exposed to hydrostatic stress associated with depth of the water above the sea floor ; coupling a portion of the optical energy from the first optical waveguide of the interferometric device to a second optical waveguide of the interferometric device ; and detecting an optical interferometric signal from a segment of the second optical waveguide of the interferometric device ; characterized by delaying the optical energy from the optical source using a delay element disposed within one of the first optical waveguide or the second optical waveguide based on a modulation depth of an angle modulation applied to the optical energy to provide dispersion compensation.
A method for transmitting data in a wireless communication system, the method performed by a user equipment, UE, and comprising: selecting (S2010) a resource pool from at least one resource pool among a first resource pool and a second resource pool, and transmitting (S2020) the data based on the resource pool, wherein based on hybrid automatic repeat request, HARQ, feedback being not configured to the data, the resource pool is selected from among the first resource pool and the second resource pool, wherein based on hybrid automatic repeat request, HARQ, feedback being configured to the data, the resource pool is selected from among the second resource pool, and wherein the first resource pool is a resource pool in which a physical sidelink feedback channel, PSFCH, resource is not configured, and the second resource pool is a resource pool in which the physical sidelink feedback channel, PSFCH, resource is configured. selecting (S2010) a resource pool from at least one resource pool among a first resource pool and a second resource pool, and transmitting (S2020) the data based on the resource pool, wherein based on hybrid automatic repeat request, HARQ, feedback being not configured to the data, the resource pool is selected from among the first resource pool and the second resource pool, wherein based on hybrid automatic repeat request, HARQ, feedback being configured to the data, the resource pool is selected from among the second resource pool, and wherein the first resource pool is a resource pool in which a physical sidelink feedback channel, PSFCH, resource is not configured, and the second resource pool is a resource pool in which the physical sidelink feedback channel, PSFCH, resource is configured.
A method for the synthesis of CTFE-based block copolymers through iodine transfer polymerization, comprising: reacting, in the presence of a radical initiator, a monomer "M", wherein "M" is a mixture of two monomers, chlorotrifluoroethylene (CTFE) and vinylidene chloride (VDC), with a chain transfer agent of the formula: X-Y or Y-X-Y, wherein X represents a C 1 -C 3 hydrocarbon, a C 1 -C 6 hydrofluorocarbon, a C 1 -C 6 hydrochlorofluorocarbon, or a C 1 -C 6 fluorocarbon and Y represents iodine, thereby forming a macro-initiator of the formula: X-poly(M)-Y or Y-poly(M)-X-poly(M)-Y, wherein poly(M) represents a polymer of the monomer; and reacting, in the presence of a radical initiator, the macro-initiator with chlorotrifluoroethylene (CTFE), thereby forming a diblock or a triblock CTFE-based block copolymer of the formula: X-poly(M)- block -PCTFE or PCTFE- block -poly(M)-X-poly(M)- block- PCTFE. reacting, in the presence of a radical initiator, a monomer "M", wherein "M" is a mixture of two monomers, chlorotrifluoroethylene (CTFE) and vinylidene chloride (VDC), with a chain transfer agent of the formula: X-Y or Y-X-Y, wherein X represents a C 1 -C 3 hydrocarbon, a C 1 -C 6 hydrofluorocarbon, a C 1 -C 6 hydrochlorofluorocarbon, or a C 1 -C 6 fluorocarbon and Y represents iodine, thereby forming a macro-initiator of the formula: X-poly(M)-Y or Y-poly(M)-X-poly(M)-Y, wherein poly(M) represents a polymer of the monomer; and reacting, in the presence of a radical initiator, the macro-initiator with chlorotrifluoroethylene (CTFE), thereby forming a diblock or a triblock CTFE-based block copolymer of the formula: X-poly(M)- block -PCTFE or PCTFE- block -poly(M)-X-poly(M)- block- PCTFE.
Apparatus for selective connection of a first fluid communication region to a further fluid communication region at a subsea location, comprising: a valve body that includes a primary passageway extending from a first port (520, 715 1 , 715 2 ) of the valve body , and connectable to a first fluid communication region , to a further port (525, 725 1 , 725 2 ) of the valve body , connectable to a further fluid communication region , the valve body comprising a channel (515, 750 1 , 750 2 ) intersecting the primary passageway and extending between an open channel end and a closed channel end , the valve body further comprising a flood passage connecting a portion of the primary passageway between the first port (520, 715 1 , 715 2 ) and the channel (515, 750 1 , 750 2 ), and a portion of the channel between the closed channel end (515, 750 1 , 750 2 ) and the primary passageway ; at least one slidable member (540, 740 1 , 740 2 ) comprising a slidable body locatable in the channel (515, 750 1 , 750 2 ) and comprising a slidable member fluid passage extending through or around the slidable body ; and at least one biasing element (555, 735 1 , 735 2 ) locatable proximate to at least one of the open channel end or closed channel end , for biasing the slidable body towards the open channel end ; wherein the slidable member (540, 740 1 , 740 2 ) is slidable along a longitudinal axis of the channel responsive (515, 750 1 , 750 2 ) to a local environmental pressure (730 1 , 730 2 ) provided at the open channel end . a valve body that includes a primary passageway extending from a first port (520, 715 1 , 715 2 ) of the valve body , and connectable to a first fluid communication region , to a further port (525, 725 1 , 725 2 ) of the valve body , connectable to a further fluid communication region , the valve body comprising a channel (515, 750 1 , 750 2 ) intersecting the primary passageway and extending between an open channel end and a closed channel end , the valve body further comprising a flood passage connecting a portion of the primary passageway between the first port (520, 715 1 , 715 2 ) and the channel (515, 750 1 , 750 2 ), and a portion of the channel between the closed channel end (515, 750 1 , 750 2 ) and the primary passageway ; at least one slidable member (540, 740 1 , 740 2 ) comprising a slidable body locatable in the channel (515, 750 1 , 750 2 ) and comprising a slidable member fluid passage extending through or around the slidable body ; and at least one biasing element (555, 735 1 , 735 2 ) locatable proximate to at least one of the open channel end or closed channel end , for biasing the slidable body towards the open channel end ; wherein the slidable member (540, 740 1 , 740 2 ) is slidable along a longitudinal axis of the channel responsive (515, 750 1 , 750 2 ) to a local environmental pressure (730 1 , 730 2 ) provided at the open channel end .
A method for storing and feeding elongate-shaped semi-finished products to a user device , comprising the steps of: - storing in a structure ( 5 s) of a storage unit , at least one case containing at least one elongate-shaped semi-finished product; - picking up said cases by means of related handling means ; - depositing said cases in a horizontal position on first supports with variable geometric configuration; said method being characterised in that - the first supports with variable geometric configuration are appropriately positioned relative to second supports with fixed configuration; and - hand over the elongate semi-finished products to said second supports by means of rotation of the case about its own longitudinal axis, with simultaneous acceptance of the load of said semi-finished products by the second supports because of the relative transit through open sections made in a base of said case and extraction from the case of at least one said semi-finished product by said second supports . - storing in a structure ( 5 s) of a storage unit , at least one case containing at least one elongate-shaped semi-finished product; - picking up said cases by means of related handling means ; - depositing said cases in a horizontal position on first supports with variable geometric configuration; said method being characterised in that - the first supports with variable geometric configuration are appropriately positioned relative to second supports with fixed configuration; and - hand over the elongate semi-finished products to said second supports by means of rotation of the case about its own longitudinal axis, with simultaneous acceptance of the load of said semi-finished products by the second supports because of the relative transit through open sections made in a base of said case and extraction from the case of at least one said semi-finished product by said second supports .
A conduit device for a heart tissue wall , comprising: an outer tube defining a guide aperture extending axially therethrough; an attaching device extending from a distal end of the outer tube , wherein the attaching device is configured for advancing along a helical path at least partially through the heart tissue wall , disposing at least a portion of the attaching device substantially between a first surface and an opposing second surface of the heart tissue wall when the outer tube is rotated relative to the first surface of the heart tissue wall ; and a ring operably engaged about an outer surface of the outer tube and configured for receiving at least a portion of the heart tissue wall between the ring and the attaching device ; characterized in that the attaching device comprises at least one helical coil comprising a sharpened distal end adapted for piercing the heart tissue wall when the outer tube is rotated relative to the first surface of the tissue wall . an outer tube defining a guide aperture extending axially therethrough; an attaching device extending from a distal end of the outer tube , wherein the attaching device is configured for advancing along a helical path at least partially through the heart tissue wall , disposing at least a portion of the attaching device substantially between a first surface and an opposing second surface of the heart tissue wall when the outer tube is rotated relative to the first surface of the heart tissue wall ; and a ring operably engaged about an outer surface of the outer tube and configured for receiving at least a portion of the heart tissue wall between the ring and the attaching device ; characterized in that the attaching device comprises at least one helical coil comprising a sharpened distal end adapted for piercing the heart tissue wall when the outer tube is rotated relative to the first surface of the tissue wall .
Device for securing an air intake through a flow surface , the air intake being intended to guide at least a part of a flow of air flowing over the flow surface towards a duct inlet situated beneath the flow surface , the air intake comprising an opening made on the flow surface , a ramp and at least two lateral walls , the opening being delimited by a lip and two lateral edges , the two lateral edges extending symmetrically on either side of the lip while gradually converging towards one another, the lateral walls extending respectively between the lateral edges and the ramp , the ramp extending between the flow surface and a region beneath the flow surface , the duct inlet being defined between the lip and the ramp , characterized in that it comprises at least one plate intended to at least partially close off the opening , the plate being provided with a counter-lip and at least two elastic elements configured to exert a force respectively against the two lateral walls in order to press the counter-lip against the lip when the device is installed in the air intake .