mhurhangee/ep-ind-claims huggingface dataset:
A gripping device used to seize a plurality of piece goods, the gripping device comprising - at least two gripping units (7, 9), - wherein the at least two gripping units (7, 9) each have a first gripping means and a second gripping means located opposite the particular first gripping means, which particular first gripping means interacts with the particular second gripping means in order to seize a particular piece good in a clamping and/or form-locking manner, wherein - the first gripping means of the at least two gripping units (7, 9) and the second gripping means of the at least two gripping units (7, 9) are mechanically motion-coupled to one another for a common advance movement, - wherein the first gripping means of the at least two gripping units (7, 9) are fixed to a common first carriage, and wherein the second gripping means of the at least two gripping units(7, 9) are fixed to a common second carriage, which first carriage and which second carriage are in contact with a linear guide (12, 14), - wherein the first carriage and the second carriage are movable toward one another, and which gripping device - comprises at least one circulatingly guided actuator designed, in particular, as belt, to which actuator the first carriage and the second carriage are mechanically coupled for the particular advance movement, the gripping device being characterised in that - a movement direction of the first carriage is oriented aligned with a movement direction of the second carriage. - at least two gripping units (7, 9), - wherein the at least two gripping units (7, 9) each have a first gripping means and a second gripping means located opposite the particular first gripping means, which particular first gripping means interacts with the particular second gripping means in order to seize a particular piece good in a clamping and/or form-locking manner, wherein - the first gripping means of the at least two gripping units (7, 9) and the second gripping means of the at least two gripping units (7, 9) are mechanically motion-coupled to one another for a common advance movement, - wherein the first gripping means of the at least two gripping units (7, 9) are fixed to a common first carriage, and wherein the second gripping means of the at least two gripping units(7, 9) are fixed to a common second carriage, which first carriage and which second carriage are in contact with a linear guide (12, 14), - wherein the first carriage and the second carriage are movable toward one another, and which gripping device - comprises at least one circulatingly guided actuator designed, in particular, as belt, to which actuator the first carriage and the second carriage are mechanically coupled for the particular advance movement, the gripping device being characterised in that - a movement direction of the first carriage is oriented aligned with a movement direction of the second carriage.
A crank-handle assembly comprising: an arm having a first end and a second end; an axle fixedly coupled to the first end of the arm along a first axis X-X', wherein the first axis X-X' is angularly oriented to the arm, and parallel to the axle; a handle pivotally coupled to the arm at the second end; the handle is adapted to pivot between an operational position and a folding position; wherein the handle is parallel to the first axis X-X' in the operational position; and wherein the handle is parallel to the arm, and folded on a side of the arm, in the folded position, and a locking mechanism adapted to bias the handle in the operational position, wherein the locking mechanism includes a button adapted to be pressed to change the position of the handle from the operational position to the folded position characterized in that: the side of the arm at which the handle is in folded position lies outside of a plane A-A', wherein the plane A-A' is containing the first axis X-X' and running parallel to the arm. an arm having a first end and a second end; an axle fixedly coupled to the first end of the arm along a first axis X-X', wherein the first axis X-X' is angularly oriented to the arm, and parallel to the axle; a handle pivotally coupled to the arm at the second end; the handle is adapted to pivot between an operational position and a folding position; wherein the handle is parallel to the first axis X-X' in the operational position; and wherein the handle is parallel to the arm, and folded on a side of the arm, in the folded position, and a locking mechanism adapted to bias the handle in the operational position, wherein the locking mechanism includes a button adapted to be pressed to change the position of the handle from the operational position to the folded position characterized in that: the side of the arm at which the handle is in folded position lies outside of a plane A-A', wherein the plane A-A' is containing the first axis X-X' and running parallel to the arm.
A system component (200, 300) of a fluid catalytic reactor system, the system component (200, 300) comprising: a catalyst separation section (210, 310) comprising separation section walls (212, 312) defining an interior region (214, 314) of the catalyst separation section (210, 310), a gas outlet port (216, 316), a riser port (218, 318), a separation device (220, 320), and a catalyst outlet port (222, 322); a riser (230, 330) extending through the riser port (218, 318) of the catalyst separation section (210, 310), the riser (230, 330) comprising a main interior riser wall segment (280, 380), a main exterior riser wall segment (288, 388), and a riser transition wall segment (236, 336), at least 90% of the main interior riser wall segment (280, 380) positioned within the interior region (214, 314) of the catalyst separation section (210, 310) and connected with at least the riser transition wall segment (236, 336), and the main exterior riser wall segment (288, 388) positioned at least partially outside of the catalyst separation section (210, 310); and a reactor vessel (250, 350) comprising a reactor vessel inlet port (252, 352), and a reactor vessel outlet port (254, 354) in fluid communication with the main exterior riser wall segment (288, 388), wherein the main interior riser wall segment (280, 380) and the main exterior riser wall segment (288, 388) are substantially parallel, and the maximum diameter of the main interior riser wall segment (280, 380) is less than the maximum diameter of the main exterior riser wall segment (288, 388). a catalyst separation section (210, 310) comprising separation section walls (212, 312) defining an interior region (214, 314) of the catalyst separation section (210, 310), a gas outlet port (216, 316), a riser port (218, 318), a separation device (220, 320), and a catalyst outlet port (222, 322); a riser (230, 330) extending through the riser port (218, 318) of the catalyst separation section (210, 310), the riser (230, 330) comprising a main interior riser wall segment (280, 380), a main exterior riser wall segment (288, 388), and a riser transition wall segment (236, 336), at least 90% of the main interior riser wall segment (280, 380) positioned within the interior region (214, 314) of the catalyst separation section (210, 310) and connected with at least the riser transition wall segment (236, 336), and the main exterior riser wall segment (288, 388) positioned at least partially outside of the catalyst separation section (210, 310); and a reactor vessel (250, 350) comprising a reactor vessel inlet port (252, 352), and a reactor vessel outlet port (254, 354) in fluid communication with the main exterior riser wall segment (288, 388),
A method for testing a reservoir fluid, comprising: obtaining a sample of a fluid from a subterranean reservoir; containing the reservoir sample at pressure simulating the pressure of the subterranean reservoir; conveying the sample to the surface; directing reservoir sample contained at the said pressure through a plurality of parallel capillaries of a capillary electrophoresis system enclosed in a high pressure chamber system (36, 96); wherein the internal pressure of the high pressure chamber system (36, 96) is set to simulate the subterranean reservoir pressure; and performing measurements on the reservoir sample fluid in different capillaries with a plurality of different detectors utilizing a plurality of different principles so as to obtain different measurements of parameters of the sample fluid. obtaining a sample of a fluid from a subterranean reservoir; containing the reservoir sample at pressure simulating the pressure of the subterranean reservoir; conveying the sample to the surface; directing reservoir sample contained at the said pressure through a plurality of parallel capillaries of a capillary electrophoresis system enclosed in a high pressure chamber system (36, 96); wherein the internal pressure of the high pressure chamber system (36, 96) is set to simulate the subterranean reservoir pressure; and performing measurements on the reservoir sample fluid in different capillaries with a plurality of different detectors utilizing a plurality of different principles so as to obtain different measurements of parameters of the sample fluid.
A particulate water-absorbing agent containing a particulate water-absorbent resin formed from a partially neutralized polyacrylic acid polymer, surface-cross-linked by at least one surface-cross-linking agent selected from the group consisting of glycerine, 1,3-propanediol, ethylene carbonate, 3-ethyl-3-hydroxymethyloxetane and ethanolamine, the particulate water-absorbing agent satisfying following conditions: (a) a centrifuge retention capacity for a physiological saline solution being not less than 27g/g; (b) an absorbency against pressure of 4.8kPa for the physiological saline solution being not less than 20g/g; (c) a mass average particle diameter being 200-450μm; (d) an amount of particles smaller than 150μm in the particulate water-absorbing agent being 0-5 % by mass; (e) a logarithmic standard deviation (σζ) of particle size distribution being 0.20-0.40; and (f) a content of an alcohol volatile substance evaporated from the particulate water-absorbing agent being 0-10ppm, the content being measured by a gas detecting tube as an atmosphere concentration. as described in part (d) of the examples of the description relating to the content of the alcohol volatile substance. (a) a centrifuge retention capacity for a physiological saline solution being not less than 27g/g; (b) an absorbency against pressure of 4.8kPa for the physiological saline solution being not less than 20g/g; (c) a mass average particle diameter being 200-450μm; (d) an amount of particles smaller than 150μm in the particulate water-absorbing agent being 0-5 % by mass; (e) a logarithmic standard deviation (σζ) of particle size distribution being 0.20-0.40; and (f) a content of an alcohol volatile substance evaporated from the particulate water-absorbing agent being 0-10ppm, the content being measured by a gas detecting tube as an atmosphere concentration. as described in part (d) of the examples of the description relating to the content of the alcohol volatile substance.
A user equipment, UE, adapted to communicate with an Evolved Node B, eNodeB, the UE comprising: a measurement unit adapted to measure reference signal received power, RSRP, and/or received signal strength indicator, RSSI, based on a discovery signal which includes cell-specific reference signals present in all downlink subframes and in DwPTS of all special subframes, a primary synchronization signal present in a prescribed subframe, a secondary synchronization signal present in a first subframe, and one or more non-zero power CSI reference signals during a period of consecutive subframes in a predetermined cell; and a reception unit adapted to receive the discovery signal from the eNodeB, wherein a subframe offset between the secondary synchronization signal and the non-zero power CSI reference signal is independently configured for each of the non-zero power CSI reference signals. a measurement unit adapted to measure reference signal received power, RSRP, and/or received signal strength indicator, RSSI, based on a discovery signal which includes cell-specific reference signals present in all downlink subframes and in DwPTS of all special subframes, a primary synchronization signal present in a prescribed subframe, a secondary synchronization signal present in a first subframe, and one or more non-zero power CSI reference signals during a period of consecutive subframes in a predetermined cell; and a reception unit adapted to receive the discovery signal from the eNodeB, wherein a subframe offset between the secondary synchronization signal and the non-zero power CSI reference signal is independently configured for each of the non-zero power CSI reference signals.
An agricultural planter row unit configured to move in a forward direction along a soil surface, the planter row unit including a row unit frame supporting a trench opening assembly configured to open a seed trench in the soil surface into which seed is deposited, the row unit further comprising: a closing assembly (100, 100') disposed rearward of the trench opening assembly, said closing assembly (100, 100') comprising a pivot arm supporting closing wheels (110, 2032, 2034) disposed to roll along the soil surface and configured to close the seed trench after the seed is deposited, said pivot arm having a forward end pivotally mounted to the row unit frame by respective pivots; a primary actuator disposed to modify a primary downforce between said closing assembly (100, 100') and said soil surface; and characterized by a flap mounted to said pivot arm and disposed rearward of said closing assembly (100, 100'), said flap disposed to resiliently contact said soil surface, wherein the primary actuator is disposed to additionally modify a force between the flap and said soil surface. a closing assembly (100, 100') disposed rearward of the trench opening assembly, said closing assembly (100, 100') comprising a pivot arm supporting closing wheels (110, 2032, 2034) disposed to roll along the soil surface and configured to close the seed trench after the seed is deposited, said pivot arm having a forward end pivotally mounted to the row unit frame by respective pivots; a primary actuator disposed to modify a primary downforce between said closing assembly (100, 100') and said soil surface; and characterized by a flap mounted to said pivot arm and disposed rearward of said closing assembly (100, 100'), said flap disposed to resiliently contact said soil surface, wherein the primary actuator is disposed to additionally modify a force between the flap and said soil surface.
A method for determining the voltage-current phase relationship of a piezoelectric phacoemulsification handpiece, said method comprising the steps of: obtaining an analog AC voltage signal (405, 705, 805) corresponding to the operating AC voltage of a piezoelectric handpiece having a driving frequency; obtaining an analog AC current signal (406, 706, 806) corresponding to the operating AC current of the piezoelectric handpiece; producing a digital representation (407, 408, 707, 708, 807, 808) of the AC current signal and the AC voltage signal using an analog detection circuit; characterized by correlating a reference amplitude component of the digital representation with a point in time using a master clock (410, 710, 810); and determining a phase count, wherein the phase count is the number of master clock periods between the reference amplitude component of the AC current signal and the AC voltage signal; and resetting the master clock (410, 710, 810) upon completion of a phase measurement. obtaining an analog AC voltage signal (405, 705, 805) corresponding to the operating AC voltage of a piezoelectric handpiece having a driving frequency; obtaining an analog AC current signal (406, 706, 806) corresponding to the operating AC current of the piezoelectric handpiece; producing a digital representation (407, 408, 707, 708, 807, 808) of the AC current signal and the AC voltage signal using an analog detection circuit; characterized by correlating a reference amplitude component of the digital representation with a point in time using a master clock (410, 710, 810); and determining a phase count, wherein the phase count is the number of master clock periods between the reference amplitude component of the AC current signal and the AC voltage signal; and resetting the master clock (410, 710, 810) upon completion of a phase measurement.
Bistable device comprising a fixed baseplate, at least two levers (2a, 2b), a tappet (3a, 3b) associated with each lever (2a, 2b), integral with said lever (2a, 2b), disposed between the lever (2a, 2b) and the baseplate, substantially aligned in a first direction, a lever (2a, 2b) able to be displaced, relative to the baseplate, so as to displace the associated tappet (3a, 3b) substantially in translation in the first direction and a member able to take two positions, characterised in that it further comprises a rocker (4a, 4b) associated with each lever (2a, 2b), disposed between the baseplate and the associated tappet (3a, 3b), comprising two V-shapes (6, 7) which face the associated tappet (3a, 3b), a touch of the associated tappet (3a, 3b) in the first V-shape tending to turn the associated rocker (4a, 4b) in a first direction (R1 +) and a touch of the associated tappet (3a, 3b) in the second V-shape tending to turn the associated rocker (4a, 4b) in a second direction (R1-) opposite to the first direction (R1+), in that all the rockers (4a, 4b) are synchronised in rotation and in that the rockers (4a, 4b) are synchronised with the member.
A capsule for use in a smoking article (10, 100), the capsule comprising: a liquid sensory enhancing material; and a shell surrounding the liquid sensory enhancing material, the shell having an outer surface rendered hydrophobic by hydrophobic groups covalently bonded to the outer surface of the shell. a liquid sensory enhancing material; and a shell surrounding the liquid sensory enhancing material, the shell having an outer surface rendered hydrophobic by hydrophobic groups covalently bonded to the outer surface of the shell.
An electrically conductive flat part for a plug connector having a first and second contact pin (112, 114) arranged in two parallel rows and a connection area for a cable, the conductors of which lie next to one another in a plane, characterized in that the flat part is made in one piece and has a connecting element with a first side opposite a second side, wherein conductors (108, 110) terminating in the first or second contact pins (112, 114) extend from the first and from the second side of the connecting element, wherein the conductors lying on the opposite sides of the connecting element are connected mutually offset to the connecting element, so that the imaginary straight extension of one conductor (108, 110) runs on the one side of the connecting element next to one or between two conductors (108, 110) on the opposite side of the connecting element, wherein the first contact pins are connected to the first conductors extending from the first side of the connecting element via an offset area, which compensates for the offset of the first and second conductor (108, 110) at the connecting element.
A conditioner mat for use with a bed assembly, comprising: an upper layer comprising a plurality of openings; a lower layer being substantially fluid impermeable; at least one interior chamber defined between the upper layer and the lower layer; at least one spacer material positioned within the at least one interior chamber, said at least one spacer material configured to maintain a shape of the at least one interior chamber and to help with the passage of fluids within at least a portion of the at least one interior chamber; the at least one spacer material being configured to receive and distribute fluids; an inlet in fluid communication with the least one interior chamber; at least one fluid module comprising a fluid transfer device, the at least one fluid module being in fluid communication with the inlet; wherein the at least one fluid module selectively delivers fluid to the at least one interior chamber through the inlet; wherein fluid entering the at least one interior chamber through the inlet is generally distributed within said at least one interior chamber by the at least one spacer material before exiting through the plurality of openings along the upper layer; and wherein the conditioner mat is configured to be removably placed on top of a bed assembly; characterized in that the upper and lower layers (22, 26) are configured to form at least one fluid boundary, said at least one fluid boundary fluidly separating a first chamber from at least a second chamber, wherein the at least one fluid boundary is generally away from a periphery of the conditioner mat. an upper layer comprising a plurality of openings; a lower layer being substantially fluid impermeable; at least one interior chamber defined between the upper layer and the lower layer; at least one spacer material positioned within the at least one interior chamber, said at least one spacer material configured to maintain a shape of the at least one interior chamber and to help with the passage of fluids within at least a portion of the at least one interior chamber; the at least one spacer material being configured to receive and distribute fluids; an inlet in fluid communication with the least one interior chamber; at least one fluid module comprising a fluid transfer device, the at least one fluid module being in fluid communication with the inlet; wherein the at least one fluid module selectively delivers fluid to the at least one interior chamber through the inlet; wherein fluid entering the at least one interior chamber through the inlet is generally distributed within said at least one interior chamber by the at least one spacer material before exiting through the plurality of openings along the upper layer; and wherein the conditioner mat is configured to be removably placed on top of a bed assembly; characterized in that the upper and lower layers (22, 26) are configured to form at least one fluid boundary, said at least one fluid boundary fluidly separating a first chamber from at least a second chamber, wherein the at least one fluid boundary is generally away from a periphery of the conditioner mat.