mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoelectric power generator comprising: a thermoelectric power generation module that includes a heat receiver and a heat dissipater and generates electric power by a temperature difference between the heat receiver and the heat dissipater ; a cooling device that cools the heat dissipater ; and a control device , characterised in that generated power of the thermoelectric power generation module is distributed to consumption power used in the cooling device and effective power used in an external load , and the control device includes: a monitoring unit that monitors a state of the cooling device and outputs monitoring data; an adjustment unit capable of adjusting the effective power supplied to the external load ; and a control command unit that outputs a control command that controls the adjustment unit based on the monitoring data. a thermoelectric power generation module that includes a heat receiver and a heat dissipater and generates electric power by a temperature difference between the heat receiver and the heat dissipater ; a cooling device that cools the heat dissipater ; and a control device , characterised in that generated power of the thermoelectric power generation module is distributed to consumption power used in the cooling device and effective power used in an external load , and the control device includes: a monitoring unit that monitors a state of the cooling device and outputs monitoring data; an adjustment unit capable of adjusting the effective power supplied to the external load ; and a control command unit that outputs a control command that controls the adjustment unit based on the monitoring data. a monitoring unit that monitors a state of the cooling device and outputs monitoring data; an adjustment unit capable of adjusting the effective power supplied to the external load ; and a control command unit that outputs a control command that controls the adjustment unit based on the monitoring data.
A process for quantitating human DNA in a sample in order to assess the extent of degradation of the DNA therein, the process comprising the steps of: using a real time polymerase chain reaction system to separately quantitate within the sample to be analyzed a first retrotransposon interspersed element and a second retrotransposon interspersed element, the first retrotransposon interspersed element being an Alu element found in the human genome, the second retrotransposon interspersed element being an SVA element of the human retinitis pigmentosa (RP) gene, the quantitation of the first retrotransposon interspersed element and the second retrotransposon interspersed element being performed simultaneously; calculating a ratio of an occurrence within the sample of the first retrotransposon interspersed element to an occurrence of the second retrotransposon interspersed element; and using the ratio as an indication of an extent of degradation of the DNA in the sample. using a real time polymerase chain reaction system to separately quantitate within the sample to be analyzed a first retrotransposon interspersed element and a second retrotransposon interspersed element, the first retrotransposon interspersed element being an Alu element found in the human genome, the second retrotransposon interspersed element being an SVA element of the human retinitis pigmentosa (RP) gene, the quantitation of the first retrotransposon interspersed element and the second retrotransposon interspersed element being performed simultaneously; calculating a ratio of an occurrence within the sample of the first retrotransposon interspersed element to an occurrence of the second retrotransposon interspersed element; and using the ratio as an indication of an extent of degradation of the DNA in the sample.
Method for etching a dielectric layer situated on the surface of a three-dimensional structure formed on a face of a substrate oriented along a substrate plane, said structure comprising surfaces perpendicular to the substrate plane and surfaces parallel to the substrate plane, the perpendicular surfaces comprising first flat perpendicular surfaces directed according to a first orientation and second flat perpendicular surfaces directed according to a second orientation different from the first orientation, characterised by the fact that it comprises successively the following steps: - forming of a superficial layer covering the parallel surfaces and the first perpendicular surfaces by ionic implantation of at least one ion species in only one portion of the thickness of the dielectric layer , said implantation being configured such that the superficial layer does not cover the second perpendicular surfaces; - partially removing the superficial layer configured to totally remove the superficial layer at the level of the parallel surfaces while preserving a residual portion of the superficial layer at the level of the first perpendicular surfaces; - selectively etching the dielectric layer with respect to the material of the residual portion of the superficial layer and with respect to the material of the face of the substrate. - forming of a superficial layer covering the parallel surfaces and the first perpendicular surfaces by ionic implantation of at least one ion species in only one portion of the thickness of the dielectric layer , said implantation being configured such that the superficial layer does not cover the second perpendicular surfaces; - partially removing the superficial layer configured to totally remove the superficial layer at the level of the parallel surfaces while preserving a residual portion of the superficial layer at the level of the first perpendicular surfaces; - selectively etching the dielectric layer with respect to the material of the residual portion of the superficial layer and with respect to the material of the face of the substrate.
A lighting apparatus , comprising: an illuminator including a light source configured to emit illumination light; a lighting controller configured to control the illuminator ; and a receiver configured to receive, from another apparatus, a control command signal generated based on at least one of user information and environmental information in order to control the illumination light, wherein the control command signal includes a plurality of parameters including, as elements, at least two of a brightness of the illumination light, a color temperature of the illumination light, and control time for controlling the illumination light, characterized in that : when the receiver has received the control command signal from the other apparatus, the lighting controller is configured to change the brightness of the illumination light by performing light alert control on the illuminator for notifying the user of said lighting apparatus that a predetermined control target apparatus will start to operate soon, the control target apparatus being different from the lighting apparatus . an illuminator including a light source configured to emit illumination light; a lighting controller configured to control the illuminator ; and a receiver configured to receive, from another apparatus, a control command signal generated based on at least one of user information and environmental information in order to control the illumination light, wherein the control command signal includes a plurality of parameters including, as elements, at least two of a brightness of the illumination light, a color temperature of the illumination light, and control time for controlling the illumination light, characterized in that : when the receiver has received the control command signal from the other apparatus, the lighting controller is configured to change the brightness of the illumination light by performing light alert control on the illuminator for notifying the user of said lighting apparatus that a predetermined control target apparatus will start to operate soon, the control target apparatus being different from the lighting apparatus .
An apparatus for fabricating an object on a substrate , the apparatus comprising: a plurality of nozzles arranged in a grid array having a periphery defining a maximum cross-sectional area of the object , the array configured as a planar array having the nozzles arranged on a common plane and being according to a maximum cross sectional area of the object, each nozzle being in communication with a supply of build material and configured to extrude a quantity of the build material therefrom; a translation mechanism configured to cause relative movement of the array and the substrate ; and a controller configured to selectively operate each nozzle to extrude a portion of the build material, and operate the translation mechanism to space the array away from the substrate , responsive to data relating to a geometry of the object , wherein the controller is configured to selectively operate at least some of the nozzles simultaneously to extrude portions of the build material in specific locations corresponding with the object geometry such that each operation of the at least some of the nozzles extrudes the portions perpendicularly therebelow at the specific locations to cause bonding to adjacent, simultaneously extruded portions to simultaneously fabricate an entire cross-section of the object , and continued operation of the at least some of the nozzles , successively or concurrently with operating the translation mechanism to move the array and the substrate away from each other, progressively extrudes the portions until the portions form the object . a plurality of nozzles arranged in a grid array having a periphery defining a maximum cross-sectional area of the object , the array configured as a planar array having the nozzles arranged on a common plane and being according to a maximum cross sectional area of the object, each nozzle being in communication with a supply of build material and configured to extrude a quantity of the build material therefrom; a translation mechanism configured to cause relative movement of the array and the substrate ; and a controller configured to selectively operate each nozzle to extrude a portion of the build material, and operate the translation mechanism to space the array away from the substrate , responsive to data relating to a geometry of the object , wherein the controller is configured to selectively operate at least some of the nozzles simultaneously to extrude portions of the build material in specific locations corresponding with the object geometry such that each operation of the at least some of the nozzles extrudes the portions perpendicularly therebelow at the specific locations to cause bonding to adjacent, simultaneously extruded portions to simultaneously fabricate an entire cross-section of the object , and continued operation of the at least some of the nozzles , successively or concurrently with operating the translation mechanism to move the array and the substrate away from each other, progressively extrudes the portions until the portions form the object .
A lens comprising a centrally extending axis (A) being perpendicular to a lens axis (L) of the lens, the lens being adapted for refracting light rays from a light source positioned off-axis with respect to the centrally extending axis, characterised by the lens comprising a first plurality of slits extending entirely in an interior of the lens and comprising a length extending perpendicular to the centrally extending axis, a width (w) extending parallel to the centrally extending axis and a thickness (t) extending perpendicular to both the length and the width, the first plurality of slits being mutually parallel and covering between 40 % and 60 % of a plane in which both the centrally extending axis (A) and the length and width (w) of the first plurality of slits extend.
A method for executing by a circuit (CT1) an operation (OPR) receiving an input data (M) and providing an output data, the method comprising: selecting a substitution element (T2[i,0..r]) in a substitution table (T2) as a function of the input data, the substitution element being a first data set, each substitution element in the substitution table that can be selected as a function of an input substitution data, being a data set, and providing the first data set (RS) as an intermediary result or a final result of the operation, the first data set including the output data, and being such that in a set of transformed data resulting from the application of a chosen surjective function (F3) to the first data set, the transformed output data occurs with a probability equal to the probability of occurrence of each transformed data resulting from the application of the surjective function to the other data in the first data set, the output data having a position in the first data set which is known by the circuit. selecting a substitution element (T2[i,0..r]) in a substitution table (T2) as a function of the input data, the substitution element being a first data set, each substitution element in the substitution table that can be selected as a function of an input substitution data, being a data set, and providing the first data set (RS) as an intermediary result or a final result of the operation, the first data set including the output data, and being such that in a set of transformed data resulting from the application of a chosen surjective function (F3) to the first data set, the transformed output data occurs with a probability equal to the probability of occurrence of each transformed data resulting from the application of the surjective function to the other data in the first data set, the output data having a position in the first data set which is known by the circuit.
Method for producing a printed circuit board for a light module of a motor vehicle lighting device, wherein a fiducial marker is provided in the conductive pattern of the printed circuit board , wherein a reference hole through the printed circuit board is formed in the fiducial marker , wherein the reference hole and a fastening hole for connecting the printed circuit board to a primary optical element are part of a hole pattern and are formed by means of the same drilling program, wherein a deviation between positions of the fiducial marker and the reference hole corresponds to an offset of the positions of the conductive pattern and the hole pattern, wherein a light-emitting component is arranged on the printed circuit board so as to be displaced by the deviation , and wherein the primary optical element is fixed to the printed circuit board by means of the fastening hole .
A catheter assembly comprising a package containing a catheter and a plurality of cleaning devices , wherein at least one of said cleaning device is a cleaning cap, a protective cap or both, wherein said catheter has at least one port wherein the catheter and each of the plurality of cleaning devices are individually sealed in separate compartments of the package , characterized in that each of the plurality of cleaning devices is individually disposed in a compartment ahead of a tip of the catheter .
A power supply apparatus comprising: a power supply means that wirelessly supplies power to an electronic apparatus ; a communication means that communicates with the electronic apparatus ; and a control means configured to determine (S508) whether information regarding the electronic apparatus that is received from the electronic apparatus is updated by the electronic apparatus , wherein, in a case where the information regarding the electronic apparatus that is received from the electronic apparatus is not updated by the electronic apparatus , the control means controls power to be supplied from the power supply apparatus to the electronic apparatus to a first power (S513), and, in a case where the information regarding the electronic apparatus that is received from the electronic apparatus is updated by the electronic apparatus , the control means controls the power to be supplied from the power supply apparatus to the electronic apparatus to a second power greater than the first power (S510). a power supply means that wirelessly supplies power to an electronic apparatus ; a communication means that communicates with the electronic apparatus ; and a control means configured to determine (S508) whether information regarding the electronic apparatus that is received from the electronic apparatus is updated by the electronic apparatus , wherein, in a case where the information regarding the electronic apparatus that is received from the electronic apparatus is not updated by the electronic apparatus , the control means controls power to be supplied from the power supply apparatus to the electronic apparatus to a first power (S513), and, in a case where the information regarding the electronic apparatus that is received from the electronic apparatus is updated by the electronic apparatus , the control means controls the power to be supplied from the power supply apparatus to the electronic apparatus to a second power greater than the first power (S510).
Induction container of an agricultural field sprayer for the metered dispensing of fertilizers and/or crop treatment compositions diluted with fresh water to form a spray liquor, having a spray tank , having a filling opening of a flushing line arranged in an annular manner in the upper region beneath the filling opening of the induction container , a feed line , connected to the flushing line , with a freshwater feed device for feeding fresh water, wherein a plurality of mutually spaced-apart induction nozzles that have at least partially downwardly directed outlet openings are arranged on the flushing line and the respective feed line for the respective induction nozzle is connected to the flushing line , wherein the line for feeding the fresh water feeds the induction nozzle from above through a branch in the underside of the flushing line with an adjoining branch line , characterized in that the outlet openings are configured in a slot-like manner and the slot-like profile of the outlet openings of the induction nozzles is oriented at least approximately parallel to an adjacent inner-wall region of the induction container , the line for feeding the fresh water is deflected in the region of the slot-like profile of the outlet openings through approximately 90° in the direction of the opposite wall of the slot of the outlet opening and leads out via a slot-like mouth opening .
An organic light emitting display device comprising; a first pixel (P1) including: a first thin-film transistor "TFT" (T2) comprising a source electrode (S2), and a first organic light emitting diode "OLED"; a second pixel (P2) including a second OLED comprising an anode electrode ; a repair line connected to the anode electrode at a first end thereof, a second end of the repair line extending over the source electrode (S2), wherein the entire repair line extended from the first end to the second end is provided in the same conductive layer as the anode electrode , and the repair line is formed as one body with the anode electrode and of the same material as the anode electrode; and a passivation layer on the source electrode (S2), wherein the second end of the repair line overlaps the source electrode (S2) with the passivation layer therebetween so that a top of the source electrode (S2) is in contact with the passivation layer . a first thin-film transistor "TFT" (T2) comprising a source electrode (S2), and a first organic light emitting diode "OLED";
A method for communication, comprising: configuring a communication system that includes a transmitter and a receiver with a first codebook CB N N of first precoding matrices for mapping up to N data streams onto N transmit antenna ports of the transmitter, each of at least some of the first precoding matrices in the first codebook derived from respective second, third and fourth matrices selected respectively from a second codebook CB p p , a third codebook CB p p and a fourth codebook CB p p , wherein the second, third and fourth codebooks are configured for mapping p data streams onto respective p transmit antenna ports, wherein configuring the communication system comprises generating a precoding matrix W in the first codebook CB N N as a triple Kronecker product of the form W ∈ CB p p ⊗ CB p p ⊗ CB p p ; mapping the data streams onto the N transmit antenna ports using a precoding scheme based on the generated precoding matrix W; and transmitting the mapped data streams over the N transmit antenna ports from the transmitter to the receiver, wherein N=8 and p=2. configuring a communication system that includes a transmitter and a receiver with a first codebook CB N N of first precoding matrices for mapping up to N data streams onto N transmit antenna ports of the transmitter, each of at least some of the first precoding matrices in the first codebook derived from respective second, third and fourth matrices selected respectively from a second codebook CB p p , a third codebook CB p p and a fourth codebook CB p p , wherein the second, third and fourth codebooks are configured for mapping p data streams onto respective p transmit antenna ports, wherein configuring the communication system comprises generating a precoding matrix W in the first codebook CB N N as a triple Kronecker product of the form W ∈ CB p p ⊗ CB p p ⊗ CB p p ; mapping the data streams onto the N transmit antenna ports using a precoding scheme based on the generated precoding matrix W; and transmitting the mapped data streams over the N transmit antenna ports from the transmitter to the receiver, wherein N=8 and p=2.
A targeted hydrophobic anti-tumor drug nanoformulation, comprising a hydrophobic anti-tumor drug and a carrier with a mass ratio of 1:4-32.5, wherein the carrier is composed of 37.5-95.3 wt% albumin and 4.7-62.5 wt% hyaluronic acid-albumin conjugate, and the hyaluronic acid-albumin conjugate is prepared by albumin and hyaluronic acid with a molar ratio of 1:1-20.