mhurhangee/ep-ind-claims huggingface dataset:
Method for fabricating a transparent display dial for a portable object, the method comprising the steps of: - creating a mould bearing a footprint formed of a first 3D pattern for imprinting a decoration on at least a first portion of the surface of the transparent display dial, and of a second 3D pattern for imprinting an antireflective filter on a second portion of the surface of the transparent display dial; - depositing on the dial a mixed layer of a monomer and a cross-linking agent sensitive to ultraviolet radiation; - applying the footprint of the mould on the mixed monomer and cross-linking agent layer; - solidifying the mixed monomer and cross-linking agent layer by photopolymerization under ultraviolet irradiation through the mould, and - after insolation, removing the mould. - creating a mould bearing a footprint formed of a first 3D pattern for imprinting a decoration on at least a first portion of the surface of the transparent display dial, and of a second 3D pattern for imprinting an antireflective filter on a second portion of the surface of the transparent display dial; - depositing on the dial a mixed layer of a monomer and a cross-linking agent sensitive to ultraviolet radiation; - applying the footprint of the mould on the mixed monomer and cross-linking agent layer; - solidifying the mixed monomer and cross-linking agent layer by photopolymerization under ultraviolet irradiation through the mould, and - after insolation, removing the mould.
A method of preparing an irreversible additive included in a cathode material for a lithium secondary battery, the method comprising: mixing an excess lithium precursor in which Li 2+a Ni 1-b M b O 2+c, NiO, and Li 2 O are physically bonded to each other at a mole ratio of x:y:z with an additional NiO and heat-treating the mixture to prepare a lithium-excess transition metal oxide in which Li 2+a Ni 1-b M b O 2+c, NiO, and Li 2 O are physically bonded to each other at a mole ratio of x':y':z', wherein, -0.2≤a≤0.2, 0≤b<1, and 0≤c≤0.2, x is 0.8 or more, x' is 0.93 or more, x<x', y>y', and z>z', based on x+y=1 and x'+y'=1, z is more than 0 and 0.21 or less based on x+y=1, and z' is 0 to 0.09 based on x'+y'=1, and M is at least one element selected from the group consisting of Cu, Mg, Pt, Al, Co, P, and B. mixing an excess lithium precursor in which Li 2+a Ni 1-b M b O 2+c, NiO, and Li 2 O are physically bonded to each other at a mole ratio of x:y:z with an additional NiO and heat-treating the mixture to prepare a lithium-excess transition metal oxide in which Li 2+a Ni 1-b M b O 2+c, NiO, and Li 2 O are physically bonded to each other at a mole ratio of x':y':z', wherein, -0.2≤a≤0.2, 0≤b<1, and 0≤c≤0.2, x is 0.8 or more, x' is 0.93 or more, x<x', y>y', and z>z', based on x+y=1 and x'+y'=1, z is more than 0 and 0.21 or less based on x+y=1, and z' is 0 to 0.09 based on x'+y'=1, and M is at least one element selected from the group consisting of Cu, Mg, Pt, Al, Co, P, and B.
A waste water treatment apparatus comprising a housing having a settling tank mounted therein adapted to receive waste water, the settling tank comprising first and second oppositely disposed end walls (16,17) spaced apart by first and second oppositely disposed side walls (18,19), a longitudinal baffle or dividing wall extending inwardly from said first end wall towards said second end wall, parallel to said first and second side walls (18,19), said dividing wall terminating spaced from and adjacent said second end wall such that the dividing wall defines a flow path for the waste water through the settling tank and effectively doubles the traverse length of the waste water through the tank, the dividing wall dividing the interior of the settling tank into an inlet region and a settlement region, a skimming device being associated with said settlement region and being mounted in the settling tank to remove any FOG that settles on the surface of the waste water, a water drain 26 being provided in a downstream end of the settlement region of the settling tank for removing water from the settling tank, an inlet end of the water drain being defined by a weir which controls the water level within the settling tank, and a sediment removal system being associated with said settlement region and adapted to remove sediment collected in the bottom of the settling tank, wherein the sediment removal system comprises a sediment removal pump located in the housing adjacent the downstream end of the settlement region of the settling tank and having an inlet coupled to a sediment extraction passage extending into a sediment collection region in the bottom of the settlement region of the settling tank and adapted to draw sediment accumulated in the sediment collection region from the settling tank, a pair of parallel vertically arranged baffle plates (64,66) extend across the width of the settlement region of the settling tank between the dividing wall and the second side wall of the settling tank, the baffle plates (64,66) having lower edges terminating above a bottom wall of the settling tank and upper edges extending above the normal water level in the settling tank, the baffle plates (64,66) being spaced apart from one another to define a cavity therebetween, wherein the inlet end of the sediment extraction passage extends into said cavity through one of said baffle plates such that said cavity defines an inlet region of the sediment extraction passage, wherein said cavity serves as a vent for the sediment removal pump and wherein the sediment extraction passage is defined by a pipe extending from the sediment removal pump into the settling tank and terminating in said cavity.
A method for altering a target site in the genome of a non-conventional yeast cell, the method comprising providing to a non-conventional yeast cell at least one guide RNA, at least one Cas endonuclease capable of introducing a double strand break at the target site, and an inhibitor of a DNA Ligase IV, wherein the inhibitor is Scr7.
An assembly system for assembling a toy which comprises at least two parts, the assembly system comprising at least one interface (120; 140) between the contact surfaces of two of the at least two parts (110, 130; 130, 150) enabling their removable assembly to each other such that they fit tightly together once assembled, the at least one interface comprising: a main interface comprising a main protrusion and hole arrangement comprised of a protrusion (420; 440) configured on the contact surface of one of said at least two parts and a hole (410; 450) configured on the corresponding contact surface of the other of said at least two parts, wherein the protrusion is configured to fit into the hole; and characterised in that the at least one interface comprises a curved interface comprised of a curvature configured on the contact surface (310; 340) of one of said at least two parts complementary to a curvature configured on the contact surface (320; 350) of the other one of said at least two parts, the curved interface comprising any type of curved design configured with a pre-defined degree of curvature designed to prevent unintended toy disassembly. a main interface comprising a main protrusion and hole arrangement comprised of a protrusion (420; 440) configured on the contact surface of one of said at least two parts and a hole (410; 450) configured on the corresponding contact surface of the other of said at least two parts, wherein the protrusion is configured to fit into the hole; and characterised in that the at least one interface comprises a curved interface comprised of a curvature configured on the contact surface (310; 340) of one of said at least two parts complementary to a curvature configured on the contact surface (320; 350) of the other one of said at least two parts, the curved interface comprising any type of curved design configured with a pre-defined degree of curvature designed to prevent unintended toy disassembly.
An abrasive material product comprising a binder and an inclusion compound composed of a host compound and a lubricant contained therein as a guest compound, wherein the inclusion compound is a compound which exists as a stable substance wherein the guest compound is supported without a covalent bond within a space defined by a crystal lattice of the host compound and wherein, in the inclusion compound, the guest compound is divided into each molecule while being surrounded by the host compound, characterized in that the host compound is cyclodextrin.
A wireless control system in a vehicle having an instrument panel or mirror, a center console and a vehicle position determination device, for wireless control of a remote electronic system, said wireless control system comprising: a display located within at least one of the instrument panel, the mirror and the center console; a transmitter module configured to transmit a wireless control signal having control data which will control the remote electronic system; an interface module in communication with the vehicle position determination device and wherein said interface module receives current geographic position data; and a control module in communication with said display, said interface module, and said transmitter module, and wherein said control module receives geographic position data from said interface module and wherein said control module upon determining that the current geographic position data is within a specified range of a preprogrammed geographic location tag communicates a prompt to said display relating to the preprogrammed geographic location tag, wherein said wireless control system is characterized in that said display displays an animation or video that assists a user in training procedures for performing programming of the system by providing to the user step-by-step actions to be performed by the user for programming of the system. a display located within at least one of the instrument panel, the mirror and the center console; a transmitter module configured to transmit a wireless control signal having control data which will control the remote electronic system; an interface module in communication with the vehicle position determination device and wherein said interface module receives current geographic position data; and a control module in communication with said display, said interface module, and said transmitter module, and wherein said control module receives geographic position data from said interface module and wherein said control module upon determining that the current geographic position data is within a specified range of a preprogrammed geographic location tag communicates a prompt to said display relating to the preprogrammed geographic location tag, wherein said wireless control system is characterized in that said display displays an animation or video that assists a user in training procedures for performing programming of the system by providing to the user step-by-step actions to be performed by the user for programming of the system.
Method for metal gas-shielded arc welding, wherein a welding current is passed through a wire electrode and the wire electrode is melted by an arc, wherein a current contact point at which the welding current is directed towards the wire electrode is provided on the wire electrode, characterized in that a free length of wire between the current contact point and a striking point of the arc on the wire electrode is set by means of the current contact point in dependence on a Joulean heat of the wire electrode.
A method comprising: detecting, by each detector of a focal plane array, electromagnetic radiation, wherein each detector is selectively coupled to a readout circuit of the focal plane array via a selection circuit (415A, 420A, 425A) of the focal plane array; during a first frame period: applying a first predetermined signal pattern to a first portion of the selection circuit, wherein the first portion of the selection circuit is associated with a first subset of detectors of the focal plane array; and performing a first readout of the focal plane array to obtain a respective output signal associated with each respective detector of the focal plane array; determining whether the first portion of the selection circuit is operating properly based at least on the output signal associated with the detectors of the first subset from the first readout; and generating an image based at least on the output signals of the detectors of the focal plane array not among the first subset of detectors. detecting, by each detector of a focal plane array, electromagnetic radiation, wherein each detector is selectively coupled to a readout circuit of the focal plane array via a selection circuit (415A, 420A, 425A) of the focal plane array; during a first frame period: applying a first predetermined signal pattern to a first portion of the selection circuit, wherein the first portion of the selection circuit is associated with a first subset of detectors of the focal plane array; and performing a first readout of the focal plane array to obtain a respective output signal associated with each respective detector of the focal plane array; determining whether the first portion of the selection circuit is operating properly based at least on the output signal associated with the detectors of the first subset from the first readout; and generating an image based at least on the output signals of the detectors of the focal plane array not among the first subset of detectors. applying a first predetermined signal pattern to a first portion of the selection circuit, wherein the first portion of the selection circuit is associated with a first subset of detectors of the focal plane array; and performing a first readout of the focal plane array to obtain a respective output signal associated with each respective detector of the focal plane array; determining whether the first portion of the selection circuit is operating properly based at least on the output signal associated with the detectors of the first subset from the first readout; and generating an image based at least on the output signals of the detectors of the focal plane array not among the first subset of detectors.
Power semiconductor comprising a support plate on which a plurality of power semiconductor components are arranged, and a housing which encloses the support plate comprising the power semiconductor components at least in part, the power semiconductor components being electrically connected to power and control connections (4 to 12) which are led out of the housing, characterised in that the support plate consists of an insulating ceramic substrate which forms the base of the housing and is provided both on the side facing the housing and on the side remote from the housing with a metal coating, and all the power connections (4, 5, 6) of the power semiconductor components arranged on the support plate are led out of the housing on one side of the housing and arranged in a row, and all the control connections (7, 8, 9, 10, 11, 12) of the power semiconductor components are led out of the housing on the opposite side of the housing and arranged in a row, the spacing (a) between adjacent power connections (4, 5, 6) being greater than the spacing (b) between adjacent control connections (7, 8, 9 and 10, 11, 12 respectively), the power semiconductor components comprising common power connections (4, 5, 6) which are arranged on one side of the housing and comprising separate control connections (7, 8, 9, 10, 11, 12), the control connections (7, 8, 9; 10, 11, 12) associated with the individual power semiconductor components being arranged in each case beside one another in a row (7, 8, 9 and 10, 11, 12 respectively) on the other side of the housing.
A camera module comprising: a lens barrel disposed within a front body and comprising lenses; a first substrate with a portion thereof disposed under the front body; a support member, with a portion thereof disposed on the bottom surface of the first substrate; and a second substrate disposed under the first substrate and coupled with the support member, wherein the support member comprises a fence portion disposed between the first substrate and the second substrate, and a hook portion extending from the fence portion and having a coupling hole into which a portion of a side surface of the second substrate is inserted and an extended portion inclined at a predetermined angle from an area wherein the coupling hole is formed, wherein a lower surface of the first substrate is coupled to a upper surface of the fence portion, and a upper surface of the second substrate is coupled to a lower surface of the fence portion, characterized in that the upper surface of the fence portion is coupled to the lower surface of the first substrate using an adhesive material. a lens barrel disposed within a front body and comprising lenses; a first substrate with a portion thereof disposed under the front body; a support member, with a portion thereof disposed on the bottom surface of the first substrate; and a second substrate disposed under the first substrate and coupled with the support member, wherein the support member comprises a fence portion disposed between the first substrate and the second substrate, and a hook portion extending from the fence portion and having a coupling hole into which a portion of a side surface of the second substrate is inserted and an extended portion inclined at a predetermined angle from an area wherein the coupling hole is formed, wherein a lower surface of the first substrate is coupled to a upper surface of the fence portion, and a upper surface of the second substrate is coupled to a lower surface of the fence portion, characterized in that the upper surface of the fence portion is coupled to the lower surface of the first substrate using an adhesive material.
Deposit heater for inductively heating an area of ground which comprises at least one first and second AC generator (21, 22) and an electrical conductor loop which is arranged at least partially within the area of ground, characterised in that the conductor loop is electrically coupled to the first and second AC generator (21, 22) in such a way that the conductor loop can be acted on by a first alternating current by means of the first AC generator in a first region and by a second alternating current by means of the second AC generator in a second region.
A connector including a first connector assembly and a second connector assembly the first connector assembly for securing to a panel member for electrically coupling with the second connector assembly for securing to a second panel member, each of the connector assemblies (10, 10') including: a first contact (14, 14') having a first portion (20, 20') and a second portion (22, 22') disposed at a first predetermined spacing from each other; and a second contact (15, 15') disposed a second predetermined spacing from the second portion (22, 22'), the first predetermined spacing of the first contact (14, 14') being configured and disposed to receive the second contact (15, 15') of the second connector assembly, wherein the second contacts (15, 15') and corresponding first contacts (14, 14') of the first connector assembly and second connector assembly are capable of forming pivotable connections, wherein protrusions (64, 64') formed in the respective first portions (20, 20') abut indented portions (70, 70') opposite protrusions (39, 39') of the second contacts (15, 15') upon coupling of the connector assemblies (10, 10') and upon sufficient movement of the first contacts (14, 14') with respect to the second contacts (15, 15') to resist further movement in the direction of abutting contact. a first contact (14, 14') having a first portion (20, 20') and a second portion (22, 22') disposed at a first predetermined spacing from each other; and a second contact (15, 15') disposed a second predetermined spacing from the second portion (22, 22'), the first predetermined spacing of the first contact (14, 14') being configured and disposed to receive the second contact (15, 15') of the second connector assembly, wherein the second contacts (15, 15') and corresponding first contacts (14, 14') of the first connector assembly and second connector assembly are capable of forming pivotable connections, wherein protrusions (64, 64') formed in the respective first portions (20, 20') abut indented portions (70, 70') opposite protrusions (39, 39') of the second contacts (15, 15') upon coupling of the connector assemblies (10, 10') and upon sufficient movement of the first contacts (14, 14') with respect to the second contacts (15, 15') to resist further movement in the direction of abutting contact.
A current-controlled oscillator - hereafter abbreviated ICO - (120, 120a) comprising: a first voltage to current converter having an input receiving an input control voltage, and an output for producing a control current inversely proportional to the input control voltage; a first error amplifier having a negative input receiving the input control voltage, a positive input receiving the first voltage to current converter output, and an output producing a bias voltage inversely proportional to the input control voltage; a current mirror having an input receiving the control current from the first voltage to current converter output, an input coupled to the bias voltage of the first error amplifier output, the current mirror regulating the control current proportionally to the bias voltage output by the first error amplifier; a replica stage (126, 126a) having an input receiving the bias voltage from the first error amplifier output, and an output producing a control current equivalent to the first voltage to current converter output control current; and a second error amplifier having a negative input receiving the input control voltage, a positive input coupled to the replica stage output, and an output producing a bias voltage inversely proportional to the first error amplifier output bias voltage, the first error amplifier output and the second error amplifier output forming a pair of regulated symmetric loads to control a bias current of an N-stage current-controlled oscillator. a first voltage to current converter having an input receiving an input control voltage, and an output for producing a control current inversely proportional to the input control voltage; a first error amplifier having a negative input receiving the input control voltage, a positive input receiving the first voltage to current converter output, and an output producing a bias voltage inversely proportional to the input control voltage; a current mirror having an input receiving the control current from the first voltage to current converter output, an input coupled to the bias voltage of the first error amplifier output, the current mirror regulating the control current proportionally to the bias voltage output by the first error amplifier; a replica stage (126, 126a) having an input receiving the bias voltage from the first error amplifier output, and an output producing a control current equivalent to the first voltage to current converter output control current; and a second error amplifier having a negative input receiving the input control voltage, a positive input coupled to the replica stage output, and an output producing a bias voltage inversely proportional to the first error amplifier output bias voltage, the first error amplifier output and the second error amplifier output forming a pair of regulated symmetric loads to control a bias current of an N-stage current-controlled oscillator.