mhurhangee/ep-ind-claims huggingface dataset:
A gemstone counting apparatus comprising: a housing as an enclosure, the housing comprising: a tray for holding a plurality of gemstones; the apparatus being characterized by a vibrating mechanism comprising an outer plate and an inner plate, wherein a first end of the inner plate is coupled to the outer plate by a first coupler and a second coupler, and a second end of the inner plate is connected to the outer plate by means of an elastic member, and wherein the vibrating mechanism is configured to vibrate the tray at pre-defined time intervals in orbital and linear directions to redistribute and level the plurality of gemstones in the tray; a middle plate comprising a camera coupled thereto, wherein the camera is positioned directly above the tray and is movable in different directions along the middle plate to capture a plurality of images of the tray each time the tray is vibrated by the vibrating mechanism; and a processing unit to process the plurality of images received from the camera, to count a number of gemstones in the tray. a tray for holding a plurality of gemstones; the apparatus being characterized by a vibrating mechanism comprising an outer plate and an inner plate, wherein a first end of the inner plate is coupled to the outer plate by a first coupler and a second coupler, and a second end of the inner plate is connected to the outer plate by means of an elastic member, and wherein the vibrating mechanism is configured to vibrate the tray at pre-defined time intervals in orbital and linear directions to redistribute and level the plurality of gemstones in the tray; a middle plate comprising a camera coupled thereto, wherein the camera is positioned directly above the tray and is movable in different directions along the middle plate to capture a plurality of images of the tray each time the tray is vibrated by the vibrating mechanism; and a processing unit to process the plurality of images received from the camera, to count a number of gemstones in the tray.
Electronic component, comprising at least a first carrier, a second carrier and at least one semiconductor chip, wherein the first carrier comprises a cavity in which the semiconductor chip is arranged, and wherein the first carrier is constructed using multilayer technology comprising a ceramic body, wherein on the first carrier a second carrier is arranged, which covers the semiconductor chip in the cavity of the first carrier and which comprises a printed circuit board and/or is constructed using multilayer technology comprising a ceramic body, wherein the second carrier comprises a cavity, characterized in that the semiconductor chip is arranged partially countersunk in the cavity in the first carrier and has a portion which protrudes from the cavity of the first carrier and which is arranged in the cavity of the second carrier. wherein the first carrier comprises a cavity in which the semiconductor chip is arranged, and wherein the first carrier is constructed using multilayer technology comprising a ceramic body, wherein on the first carrier a second carrier is arranged, which covers the semiconductor chip in the cavity of the first carrier and which comprises a printed circuit board and/or is constructed using multilayer technology comprising a ceramic body, wherein the second carrier comprises a cavity, characterized in that the semiconductor chip is arranged partially countersunk in the cavity in the first carrier and has a portion which protrudes from the cavity of the first carrier and which is arranged in the cavity of the second carrier.
A RADAR transmission and marking device, comprising: a bottom side and a top side opposite said bottom side; a radar antenna operative from said bottom side transmitting radar signals into a substrate beneath a surface; a processor; a distance measurement tool; and a printing mechanism operative from said bottom side; characterised by a screen on a side other than said bottom side, exhibiting a visual representation of said received response of said radar antenna at the horizontal and vertical center of the screen calibrated to correspond to both a center of output from said radar antenna and a physical location on a surface where indicia are to be placed; wherein said printing mechanism prints indicia on said surface in contact with said bottom side of said device at the same time as said transmission and marking device is moving and as a function of a received response to said radar antenna; and wherein, upon detection of a target, said printing mechanism makes said indicia calibrated such that the velocity of movement of said device, processing time, and position of said printing mechanism relative to said antenna cause said indicia to be printed on a location associated with said target. a bottom side and a top side opposite said bottom side; a radar antenna operative from said bottom side transmitting radar signals into a substrate beneath a surface; a processor; a distance measurement tool; and a printing mechanism operative from said bottom side; characterised by a screen on a side other than said bottom side, exhibiting a visual representation of said received response of said radar antenna at the horizontal and vertical center of the screen calibrated to correspond to both a center of output from said radar antenna and a physical location on a surface where indicia are to be placed; wherein said printing mechanism prints indicia on said surface in contact with said bottom side of said device at the same time as said transmission and marking device is moving and as a function of a received response to said radar antenna; and wherein, upon detection of a target, said printing mechanism makes said indicia calibrated such that the velocity of movement of said device, processing time, and position of said printing mechanism relative to said antenna cause said indicia to be printed on a location associated with said target.
An organic light-emitting array comprising: a substrate having a plurality of sub-pixels, each sub-pixel including an emission portion and a non-emission portion adjacent the emission portion; a first electrode provided on at least the emission portion and provided on a portion of the non-emission portion for each sub-pixel; an overcoat layer as an interlayer between the substrate and the first electrode, the overcoat layer having a concave area formed in a portion of a thickness thereof so as to correspond to the non-emission portion; a bank provided in the non-emission portion, wherein one side of the bank is positively tapered and is configured to overlap a portion of the first electrode, and another side of the bank, which corresponds to the concave area of the overcoat layer, is negatively tapered and is configured so as not to overlap the first electrode; an organic layer provided on the first electrode and the bank; and a second electrode disposed on the organic layer over the plurality of sub-pixels. a substrate having a plurality of sub-pixels, each sub-pixel including an emission portion and a non-emission portion adjacent the emission portion; a first electrode provided on at least the emission portion and provided on a portion of the non-emission portion for each sub-pixel; an overcoat layer as an interlayer between the substrate and the first electrode, the overcoat layer having a concave area formed in a portion of a thickness thereof so as to correspond to the non-emission portion; a bank provided in the non-emission portion, wherein one side of the bank is positively tapered and is configured to overlap a portion of the first electrode, and another side of the bank, which corresponds to the concave area of the overcoat layer, is negatively tapered and is configured so as not to overlap the first electrode; an organic layer provided on the first electrode and the bank; and a second electrode disposed on the organic layer over the plurality of sub-pixels.
A user device, comprising: an input device configured to receive a user credential from a user during an initial login to access a user resource; and a processing core having at least one processor configured to decrypt a credential-protected key to produce a data protection key, encrypt the data protection key with an ephemeral entropy to produce an entropy-protected key, wherein the ephemeral entropy is a single use password or secret key generated to last for a limited period of time, decrypt the entropy-protected key after a system reboot to produce the data protection key, and access the user resource after the system reboot with the data protection key while forgoing use of the user credential. an input device configured to receive a user credential from a user during an initial login to access a user resource; and a processing core having at least one processor configured to decrypt a credential-protected key to produce a data protection key, encrypt the data protection key with an ephemeral entropy to produce an entropy-protected key, wherein the ephemeral entropy is a single use password or secret key generated to last for a limited period of time, decrypt the entropy-protected key after a system reboot to produce the data protection key, and access the user resource after the system reboot with the data protection key while forgoing use of the user credential. decrypt a credential-protected key to produce a data protection key, encrypt the data protection key with an ephemeral entropy to produce an entropy-protected key, wherein the ephemeral entropy is a single use password or secret key generated to last for a limited period of time, decrypt the entropy-protected key after a system reboot to produce the data protection key, and access the user resource after the system reboot with the data protection key while forgoing use of the user credential.
A polymerization catalyst system, comprising at least three catalysts, comprising: a metallocene catalyst; a first non-metallocene comprising a ligand complexed to a metal through two or more nitrogen atoms; and a second non-metallocene comprising a catalyst of the formula: or any combinations, wherein X 1 and X 2 are each, independently, phenyl, methyl, chloro, fluoro, or a hydrocarbyl group. a metallocene catalyst; a first non-metallocene comprising a ligand complexed to a metal through two or more nitrogen atoms; and a second non-metallocene comprising a catalyst of the formula: or any combinations, wherein X 1 and X 2 are each, independently, phenyl, methyl, chloro, fluoro, or a hydrocarbyl group.
A bearing bushing, the bearing bushing comprises: a bushing body and a buffer member connected thereto; the buffer member comprising a spring piece (14,15), the spring piece (14,15) is arranged on the top of the bushing body, characterized in that, the spring piece (14,15) comprises an extending part and a fixed part (141,151), the extending part obliquely extends downward from two opposite sides of the fixed part; the buffer member further includes: a top elastic pad fixed on the top surface of the bearing bushing and/or side elastic pads fixed on both sides of the top of the bearing bushing.
Filling device for filling liquid-containing products into containers, said filling device comprising a product space which ends in a filling valve and comprising, in the region of its filling valve, at least two valve elements (22, 29) movable in relation to one another by means of an actuator, which in the region of a sealing surface rest against each other in the closed position and in the open position are spaced apart from one another, wherein the one valve element is formed by a valve pin and the other valve element is formed by a valve housing, wherein the valve pin comprises, at least in the region of the sealing surface, a surface made of metal or thermoset, or consists of this, wherein at least the valve housing comprises a plastic cladding (32; 33) in the direction towards the product space, characterised in that the plastic cladding is configured as a profiled plastic lining (32; 33), which covers the inner side of the valve housing and which runs over a diameter-reducing edge of the valve housing, and wherein the plastic lining (32; 33) forms a part of the sealing surface of the valve housing.
Apparatus for transporting contact lenses accommodated in containers through successively arranged dipping baths (2, 3, 4) in a translational movement from a starting end of the respective dipping bath to a leaving end thereof, the apparatus comprising successively arranged dipping baths each containing a treatment fluid an further comprising a plurality of containers each for accommodating one contact lens, the containers being capable of enabling a flow of one or more treatment fluids into and out of the containers during transport of the containers through the dipping baths, the apparatus further comprising a plurality of carriers to hold the containers during transport through the dipping baths, and further comprising lifters to automatically lower and raise the carriers in a reciprocating manner during translation movement of the containers through the dipping baths along a transport path so as to transport the contact lenses through the dipping baths in a translational movement which is superimposed by a lowering and raising motion, such that a portion of each container which holds a contact lens remains immersed in the treatment fluid contained in the dipping bath while the container held by the carrier is transported through the dipping baths.
A manufacturing method of a thin film transistor, comprising steps of: forming a buffer layer and an active film sequentially on a substrate, and forming an active layer through a patterning process on the active film; forming a gate insulating layer and a gate electrode sequentially; forming openings for Ni deposition in the gate insulating layer so as to expose a part of source/drain regions of the active layer; forming a dielectric layer having source/drain contact holes in a one-to-one correspondence with the openings for Ni deposition; and forming source/drain electrodes which are connected with the active layer via the source/drain contact holes and the openings for Ni deposition; wherein materials of the active layer and the gate electrode are amorphous silicon thin film, respectively; characterized in that, between the step of forming the openings for Ni deposition and the step of forming the dielectric layer, the method further comprises a step of: crystallizing the amorphous silicon thin film material of both the active layer and the gate electrode into poly silicon thin film material by utilizing a metal-induced lateral crystallization method. forming a buffer layer and an active film sequentially on a substrate, and forming an active layer through a patterning process on the active film; forming a gate insulating layer and a gate electrode sequentially; forming openings for Ni deposition in the gate insulating layer so as to expose a part of source/drain regions of the active layer; forming a dielectric layer having source/drain contact holes in a one-to-one correspondence with the openings for Ni deposition; and forming source/drain electrodes which are connected with the active layer via the source/drain contact holes and the openings for Ni deposition; wherein materials of the active layer and the gate electrode are amorphous silicon thin film, respectively; characterized in that, between the step of forming the openings for Ni deposition and the step of forming the dielectric layer, the method further comprises a step of: crystallizing the amorphous silicon thin film material of both the active layer and the gate electrode into poly silicon thin film material by utilizing a metal-induced lateral crystallization method.
A method executed by a client (4, 402) which receives a remote user interface, RUI, wherein the remote user interface is a web page based on a hypertext transfer protocol, the method comprising: obtaining (274, 275) state information of the RUI comprising server state information and client state information, from a storage server, that was previously generated when the remote user interface was being used; and providing, to an RUI server, the server state information for restoring state of the RUI server and information for accessing to the client state information of the RUI client device; and requesting the server to provide an original page; receiving, from the RUI server, the original page containing a predetermined Java script created based on the information for accessing the state information of the client; restoring the state of the RUI by using the Java script. obtaining (274, 275) state information of the RUI comprising server state information and client state information, from a storage server, that was previously generated when the remote user interface was being used; and providing, to an RUI server, the server state information for restoring state of the RUI server and information for accessing to the client state information of the RUI client device; and requesting the server to provide an original page; receiving, from the RUI server, the original page containing a predetermined Java script created based on the information for accessing the state information of the client; restoring the state of the RUI by using the Java script.
A manufacturing process for preparing a carbon black pigment, said process comprising the steps of: a. admixing in water i) at least two non-ionic surfactants selected from the group consisting of alkoxylated polyethers, alkoxylated esters, polyglycol ethers, alcohol alkoxylates or alkylphenol polyglycol ethers with ii) at least one humectant selected from the group consisting of polyhydric alcohol or esters and ethers thereof, followed by stirring to obtain a clear solution; b. admixing carbon black pigment into the clear solution of step (a) with constant stirring to obtain a homogeneous composition, wherein the composition as obtained comprises ionic surfactant in the range of 30 to 50 wt./wt., humectant in the range of 5 to 15 wt./wt., and carbon black pigment in the range of 50 to 60 wt./wt.; c. adjusting the pH of the homogeneous composition of step (b) to 8 by adding mild alkali followed by stirring the composition until the pH remains constant at 8; d. adjusting the pH of the homogeneous composition of step (c) to be in the range of 6 to 6.5 by adding mild acid followed by stirring the composition until the pH remains constant in the range of 6 to 6.5; e. subjecting the composition of step (d) to milling and spray drying to obtain a powder; and f. granulating the powder to obtain carbon black pigment granules having moisture content in the range of 0.5 to 2 % and a mean particle size of at least 200 microns. a. admixing in water i) at least two non-ionic surfactants selected from the group consisting of alkoxylated polyethers, alkoxylated esters, polyglycol ethers, alcohol alkoxylates or alkylphenol polyglycol ethers with ii) at least one humectant selected from the group consisting of polyhydric alcohol or esters and ethers thereof, followed by stirring to obtain a clear solution; b. admixing carbon black pigment into the clear solution of step (a) with constant stirring to obtain a homogeneous composition, wherein the composition as obtained comprises ionic surfactant in the range of 30 to 50 wt./wt., humectant in the range of 5 to 15 wt./wt., and carbon black pigment in the range of 50 to 60 wt./wt.; c. adjusting the pH of the homogeneous composition of step (b) to 8 by adding mild alkali followed by stirring the composition until the pH remains constant at 8; d. adjusting the pH of the homogeneous composition of step (c) to be in the range of 6 to 6.5 by adding mild acid followed by stirring the composition until the pH remains constant in the range of 6 to 6.5; e. subjecting the composition of step (d) to milling and spray drying to obtain a powder; and f. granulating the powder to obtain carbon black pigment granules having moisture content in the range of 0.5 to 2 % and a mean particle size of at least 200 microns.
A method of calibrating an agricultural planter configured to dispense seeds, said method comprising the steps of: detecting seeds dispensed by a row unit of the planter with a seed sensor, said seed sensor generating a seed pulse upon the detection of each of said dispensed seeds; sending a start control signal and a stop control signal to a control device (1500, 1600), said control device controlling the dispensing of seeds by said row unit; characterized by: calculating a start delay by measuring a time delay between the sending of said start control signal and the detection of a first seed pulse after sending said start control signal; and calculating a stop delay by measuring a time delay between the sending of said stop control signal and the detection of a last seed pulse after sending said stop control signal; storing the calculated start and stop delays in a control unit of the control device (1500, 1600), the control unit using the start and stop delays to adjust the time of sending the control signal to the control device (1500, 1600). detecting seeds dispensed by a row unit of the planter with a seed sensor, said seed sensor generating a seed pulse upon the detection of each of said dispensed seeds; sending a start control signal and a stop control signal to a control device (1500, 1600), said control device controlling the dispensing of seeds by said row unit; characterized by: calculating a start delay by measuring a time delay between the sending of said start control signal and the detection of a first seed pulse after sending said start control signal; and calculating a stop delay by measuring a time delay between the sending of said stop control signal and the detection of a last seed pulse after sending said stop control signal; storing the calculated start and stop delays in a control unit of the control device (1500, 1600), the control unit using the start and stop delays to adjust the time of sending the control signal to the control device (1500, 1600). calculating a start delay by measuring a time delay between the sending of said start control signal and the detection of a first seed pulse after sending said start control signal; and calculating a stop delay by measuring a time delay between the sending of said stop control signal and the detection of a last seed pulse after sending said stop control signal; storing the calculated start and stop delays in a control unit of the control device (1500, 1600), the control unit using the start and stop delays to adjust the time of sending the control signal to the control device (1500, 1600).