mhurhangee/patent-ind-claim-en huggingface dataset:
Snap mechanism for fixing a PCB (LP1 - LP5) in a housing shell (GH1 - GH4), wherein the geometry of the housing shell (GH1 - GH4) has a connector body (SK1 - SK4) with a first (ESE1 - ESE5) and a second (ZSE1 - ZSE4) plug-in element, wherein a plug-in element (ESE1 - ESE5, ZSE1 - ZSE4) has an insertion element (EE1 - EE3) which is chamfered towards the PCB (LP1 - LP5) and a snap-in lug (SN1 - SN5) pointing towards the edge of the PCB; wherein the connector body (SK1 - SK4) has a web (ST1 - ST5) with a wall (WA) chamfered towards the PCB (LP1 - LP5) between the first (ESE1 - ESE5) and the second (ZSE1 - ZSE4) plug-in element, whereby a retaining edge (HK) is formed on the inner wall of the connector body (SK1 - SK4); wherein the PCB (LP1 - LP5) has two recesses (A1 - A7), into which the first (ESE1 - ESE5) and the second (ZSE1 - ZSE4) plug-in element engage; wherein the PCB (LP1 - LP5) has a snap tongue (SZ1 - SZ4) between the recesses (A1 - A7); wherein by mechanically pressing the PCB (LP1 - LP5) into the connector body (SK1 - SK4) by abutting the snap tongue (SZ1 - SZ4) against the retaining edge (HK) and by form-fit connection of the snap lugs (SN1 - SN5) to the PCB (LP1 - LP5) the housing shell (GH1 - GH4) is fixed to the PCB (LP1 - LP5), characterised in that in the mounted state of the PCB (LP1 - LP5) the snap lugs (SN1 - SN5) project from the recesses (A1 - A7) out over the surface of a section of the PCB to the edge of the PCB (LP1 - LP5) and thus form the form-fit connection. wherein the geometry of the housing shell (GH1 - GH4) has a connector body (SK1 - SK4) with a first (ESE1 - ESE5) and a second (ZSE1 - ZSE4) plug-in element, wherein a plug-in element (ESE1 - ESE5, ZSE1 - ZSE4) has an insertion element (EE1 - EE3) which is chamfered towards the PCB (LP1 - LP5) and a snap-in lug (SN1 - SN5) pointing towards the edge of the PCB; wherein the connector body (SK1 - SK4) has a web (ST1 - ST5) with a wall (WA) chamfered towards the PCB (LP1 - LP5) between the first (ESE1 - ESE5) and the second (ZSE1 - ZSE4) plug-in element, whereby a retaining edge (HK) is formed on the inner wall of the connector body (SK1 - SK4); wherein the PCB (LP1 - LP5) has two recesses (A1 - A7), into which the first (ESE1 - ESE5) and the second (ZSE1 - ZSE4) plug-in element engage; wherein the PCB (LP1 - LP5) has a snap tongue (SZ1 - SZ4) between the recesses (A1 - A7); wherein by mechanically pressing the PCB (LP1 - LP5) into the connector body (SK1 - SK4) by abutting the snap tongue (SZ1 - SZ4) against the retaining edge (HK) and by form-fit connection of the snap lugs (SN1 - SN5) to the PCB (LP1 - LP5) the housing shell (GH1 - GH4) is fixed to the PCB (LP1 - LP5), characterised in that in the mounted state of the PCB (LP1 - LP5) the snap lugs (SN1 - SN5) project from the recesses (A1 - A7) out over the surface of a section of the PCB to the edge of the PCB (LP1 - LP5) and thus form the form-fit connection.
An apparatus, comprising: an image sensor comprising: timing and control circuitry to generate signals to cause multiple transfers of charge from a photo-diode to a storage capacitor within a pixel cell (202; 502) during an image capture sequence wherein: said pixel cell is a visible pixel cell; and said timing and control circuitry is coupled to a transfer gate (Q2) of said pixel cell and controls said transfers of charge through said transfer gate; a row select transistor (Q3) configured to be activated for row select readouts of the storage capacitor ; threshold circuitry to track said storage capacitor's voltage using the row select transistor (Q3) to perform a row select readout after every one of the multiple transfers and recognize when said storage capacitor's voltage reaches a threshold wherein said threshold circuitry is coupled to said timing and control circuitry, said timing and control circuitry configured to cease additional transfers of charge within an image capture sequence in response to said threshold circuitry's recognition that said storage capacitor's voltage has reached a threshold. timing and control circuitry to generate signals to cause multiple transfers of charge from a photo-diode to a storage capacitor within a pixel cell (202; 502) during an image capture sequence wherein: said pixel cell is a visible pixel cell; and said timing and control circuitry is coupled to a transfer gate (Q2) of said pixel cell and controls said transfers of charge through said transfer gate; said pixel cell is a visible pixel cell; and said timing and control circuitry is coupled to a transfer gate (Q2) of said pixel cell and controls said transfers of charge through said transfer gate; a row select transistor (Q3) configured to be activated for row select readouts of the storage capacitor ; threshold circuitry to track said storage capacitor's voltage using the row select transistor (Q3) to perform a row select readout after every one of the multiple transfers and recognize when said storage capacitor's voltage reaches a threshold wherein said threshold circuitry is coupled to said timing and control circuitry, said timing and control circuitry configured to cease additional transfers of charge within an image capture sequence in response to said threshold circuitry's recognition that said storage capacitor's voltage has reached a threshold.
A device for identifying a paper currency fold, comprising: a laser source , configured to emit laser light; a rectangular grating arranged between the laser source and a paper currency , and configured to modulate the laser light into stripes which changes to be bright or to be dark on a surface of the paper currency ; an area array photoelectric sensor , configured to capture an image; an imaging lens group arranged between the area array photoelectric sensor and the paper currency , configured to converge an image of the surface of the paper currency onto the area array photoelectric sensor ; and an information processing module electrically connected with the area array photoelectric sensor , configured to process an image signal captured by the area array photoelectric sensor ; wherein the rectangular grating is driven to rotate by power. a laser source , configured to emit laser light; a rectangular grating arranged between the laser source and a paper currency , and configured to modulate the laser light into stripes which changes to be bright or to be dark on a surface of the paper currency ; an area array photoelectric sensor , configured to capture an image; an imaging lens group arranged between the area array photoelectric sensor and the paper currency , configured to converge an image of the surface of the paper currency onto the area array photoelectric sensor ; and an information processing module electrically connected with the area array photoelectric sensor , configured to process an image signal captured by the area array photoelectric sensor ; wherein the rectangular grating is driven to rotate by power.
A communication device comprising - a Virtual Retinal Display (VRD) in form of glasses to project an image onto the retina of a user; - at least one haptic sensor , wherein it is possible to navigate through a menu displayed by the Virtual Retinal Display with the at least one haptic sensor , and wherein the at least one haptic sensor is mounted on the frame of said glasses and the at least one haptic sensor is a touch pad or an array of capacitive sensors; and - a central control unit to control at least the Virtual Retinal Display and the at least one haptic sensor . - a Virtual Retinal Display (VRD) in form of glasses to project an image onto the retina of a user; - at least one haptic sensor , wherein it is possible to navigate through a menu displayed by the Virtual Retinal Display with the at least one haptic sensor , and wherein the at least one haptic sensor is mounted on the frame of said glasses and the at least one haptic sensor is a touch pad or an array of capacitive sensors; and - a central control unit to control at least the Virtual Retinal Display and the at least one haptic sensor .
A method of manufacturing a solar cell , comprising: - forming a dopant layer to a first surface of a semiconductor substrate by ion implantation doping a dopant of a first conductivity type and a counter dopant of a second conductivity type opposite to the first conductivity type, - activating the dopant of the first conductivity type and the counter dopant of the second conductivity type by annealing the semiconductor substrate , - forming an antireflection layer on the entire surface of the dopant layer, - forming an electrode electrically connected to the dopant layer through the anti-reflection layer , - wherein a doping amount of the counter dopant is less than a doping amount of the dopant . - forming a dopant layer to a first surface of a semiconductor substrate by ion implantation doping a dopant of a first conductivity type and a counter dopant of a second conductivity type opposite to the first conductivity type, - activating the dopant of the first conductivity type and the counter dopant of the second conductivity type by annealing the semiconductor substrate , - forming an antireflection layer on the entire surface of the dopant layer, - forming an electrode electrically connected to the dopant layer through the anti-reflection layer , - wherein a doping amount of the counter dopant is less than a doping amount of the dopant .
Gauge body for a container for pressurized gas, comprising: - a mounting surface (4 3 ) for mounting the body to the container; - an inner side (4 1 ) in contact with the pressurized gas when mounted on the container; - an outer side (4 2 ) opposite to the inner side (4 1 ) with regard to the mounting surface (4 3 ), said outer side (4 2 ) being outside of the container when the body is mounted on said container; - an electrical lead extending in a gas tight manner through the body from the inner side (4 1 ) to the outer side (4 2 ); wherein the electrical lead comprises a metallic rod (12 1 ), a bushing (12 3 ) around said rod (12 1 ), said bushing being mounted in a gas tight manner on the body, and a glass annulus (12 2 ) between the metallic rod (12 1 ) and the bushing (12 3 ), said annulus forming a gas tight barrier between the rod and the bushing; wherein the bushing (12 3 ) is housed in a bore of the body , said bore forming a passageway between the inner side (4 1 ) and the outer side (4 2 ); characterized in that the bushing (12 3 ) comprises a collar that rests on a shoulder portion of the bore . - a mounting surface (4 3 ) for mounting the body to the container; - an inner side (4 1 ) in contact with the pressurized gas when mounted on the container; - an outer side (4 2 ) opposite to the inner side (4 1 ) with regard to the mounting surface (4 3 ), said outer side (4 2 ) being outside of the container when the body is mounted on said container; - an electrical lead extending in a gas tight manner through the body from the inner side (4 1 ) to the outer side (4 2 ); wherein the electrical lead comprises a metallic rod (12 1 ), a bushing (12 3 ) around said rod (12 1 ), said bushing being mounted in a gas tight manner on the body, and a glass annulus (12 2 ) between the metallic rod (12 1 ) and the bushing (12 3 ), said annulus forming a gas tight barrier between the rod and the bushing; wherein the bushing (12 3 ) is housed in a bore of the body , said bore forming a passageway between the inner side (4 1 ) and the outer side (4 2 ); characterized in that the bushing (12 3 ) comprises a collar that rests on a shoulder portion of the bore .
An apparatus for treating 'fats, oils, and grease' (FOG) contaminated waste water comprising: • a first heater ; • a feed apparatus for supplying contaminated waste water to the first heater ; • a main centrifuge provided downstream of the first heater ; • an auxiliary centrifuge provided between the first heater and the main centrifuge , the auxiliary centrifuge having a liquid phase outlet which is fluidly coupled to an inlet of the main centrifuge , and a solids outlet; and • a secondary heater provided between the auxiliary centrifuge and the main centrifuge ; characterised in that the apparatus further comprises: • a macerator provided upstream of the first heater ; • a first heat exchanger having a first channel and a second channel, wherein the first channel is connected in a flow path extending between the feed apparatus and the first heater ; and • a secondary heat exchanger provided upstream of the secondary heater, the secondary heat exchanger having a first channel and a second channel; and wherein the first channel of the secondary heat exchanger is connected in a flow path between the auxiliary centrifuge and the main centrifuge ; wherein a waste water outlet from the main centrifuge is fluidly coupled to an inlet of the second channel of the first heat exchanger by a flow path in which the second channel of the secondary heat exchanger is fluidly coupled to the waste water outlet of the main centrifuge . • a first heater ; • a feed apparatus for supplying contaminated waste water to the first heater ; • a main centrifuge provided downstream of the first heater ; • an auxiliary centrifuge provided between the first heater and the main centrifuge , the auxiliary centrifuge having a liquid phase outlet which is fluidly coupled to an inlet of the main centrifuge , and a solids outlet; and • a secondary heater provided between the auxiliary centrifuge and the main centrifuge ; • a macerator provided upstream of the first heater ; • a first heat exchanger having a first channel and a second channel, wherein the first channel is connected in a flow path extending between the feed apparatus and the first heater ; and • a secondary heat exchanger provided upstream of the secondary heater, the secondary heat exchanger having a first channel and a second channel; and wherein the first channel of the secondary heat exchanger is connected in a flow path between the auxiliary centrifuge and the main centrifuge ; wherein a waste water outlet from the main centrifuge is fluidly coupled to an inlet of the second channel of the first heat exchanger by a flow path in which the second channel of the secondary heat exchanger is fluidly coupled to the waste water outlet of the main centrifuge .
A polarizing plate comprising: a polarizer; a first hard coating layer positioned on the polarizer, and containing a first binder resin comprising a (meth)acrylate-based (co)polymer; a light transmitting substrate positioned on the first hard coating layer, having retardation of at least 3000 nm and having in-plane birefringence; and a second hard coating layer positioned on the light transmitting substrate, and comprising a second binder resin and solid inorganic nanoparticles dispersed in the binder resin, wherein the first hard coating layer, the light transmitting substrate and the second hard coating layer are sequentially stacked and bonded on one side of the polarizer; and an acute angle formed by a slow axis of the light transmitting substrate and an absorption axis of the polarizer is 5 to 85°. a polarizer; a first hard coating layer positioned on the polarizer, and containing a first binder resin comprising a (meth)acrylate-based (co)polymer; a light transmitting substrate positioned on the first hard coating layer, having retardation of at least 3000 nm and having in-plane birefringence; and a second hard coating layer positioned on the light transmitting substrate, and comprising a second binder resin and solid inorganic nanoparticles dispersed in the binder resin, wherein the first hard coating layer, the light transmitting substrate and the second hard coating layer are sequentially stacked and bonded on one side of the polarizer; and an acute angle formed by a slow axis of the light transmitting substrate and an absorption axis of the polarizer is 5 to 85°.
A transmitter device , comprising a transmission antenna, the transmission antenna comprising at least one transducer and one signal generation unit for generating an acoustic communication signal to be transmitted to a receiver device including hidden information, characterized in that the signal generation unit is configured to previously record an original acoustic signal, wherein the signal generation unit is configured to previously divide the total duration of an initial signal x(t) derived from the original signal into a set of contiguous successive time intervals of the same duration T, each interval of duration T being divided into 2M sub-intervals U k : U -M , ..., U -1 , U 1 , ..., U M , separated by guard intervals, said sub-intervals having increasing durations as a function of the absolute value of k, said communication signal y(t) to be transmitted being equal to the sum of the initial signal x(t) and an auxiliary signal Ψ(x)(t), previously multiplied by α.a n , where α denotes a gain parameter <1, chosen to be low enough for the signal y(t) to be close to the signal x(t), and where a n denotes an information symbol to be transmitted corresponding to the n th interval, said symbol a n having a phase and/or an amplitude carrying the hidden information, said auxiliary signal Ψ(x)(t) being calculated from the initial signal x(t) by means of a chosen transformation operator Ψ, the transformation operator being defined on each of said intervals from a phase parameter exp j.β k , the phase parameter depending on a set of phases β k forming a steganographic key, the transformation operator being applied to the initial signal in each sub-interval U k in order to calculate the value of the corresponding auxiliary signal in said interval, the value of the auxiliary signal Ψ(x)(T/2 + t) at a time T/2 + t, where t belongs to a sub-interval U k , being equal to: Ψ x T / 2 + t = exp j . β k . p t . x T / 2 − t , β k being comprised in the interval [0, 2 π ] and p(t) being an amplitude weighting function at time t.
A method of determining if a subject afflicted with a cancer associated with a BRG1 mutation will respond to therapeutic treatment with a BRM inhibitor, wherein the cancer is a squamous cell lung carcinoma, non-small cell lung carcinoma, large cell lung carcinoma, lung adenocarcinoma, liver or ovarian cancer, comprising: a) contacting a sample obtained from said subject with a reagent capable of detecting human cancer cells harboring one or more BRG1 mutations; and b) comparing the sample obtained from said afflicted subject with a similar sample taken from a non-cancerous or normal control subject, wherein the presence of one or more BRG1 mutations in said sample obtained from said afflicted subject indicates said afflicted subject will respond to therapeutic treatment with a BRM inhibitor. a) contacting a sample obtained from said subject with a reagent capable of detecting human cancer cells harboring one or more BRG1 mutations; and b) comparing the sample obtained from said afflicted subject with a similar sample taken from a non-cancerous or normal control subject, wherein the presence of one or more BRG1 mutations in said sample obtained from said afflicted subject indicates said afflicted subject will respond to therapeutic treatment with a BRM inhibitor.
A road crash barrier device configured to be positioned on a road and comprising a tire assembly and an engaging and friction element connected to the tire assembly on a front side thereof, the tire assembly comprising: - a first tire row comprising at least two tires ; - a second tire row comprising at least one tire ; the first tire row and the second tire row being connected to one another, whereby the tires are positioned so that a contact patch of the tires is in contact with a road surface when the road crash barrier device is positioned on the road, characterized in that the first tire row and the second tire row are connected to one another in a zip-like manner so that side walls of the tires of the first tire row are in contact with and at least partially overlap side walls of the tires of the second tire row and wherein the first and second tire rows are connected via a shared flexible tensioning element that extends from one side of the tire assembly to the other side of the tire assembly through the side walls of the tires of the first and second tire rows . - a first tire row comprising at least two tires ; - a second tire row comprising at least one tire ;
A method of operating a wind turbine during a grid loss, the wind turbine comprising a rotor with a number of pitch-adjustable rotor blades , the rotor being arranged to drive an electrical generator (G), the wind turbine further comprises: a power storage unit ; a number of power consuming units being grouped into at least a first group of power consuming units and a second group of power consuming units , the first group of power consuming units being powered by the power storage unit ; and a first electrical converter for connecting the generator (G) to the electrical grid ; and a second electrical converter for connecting the electrical generator (G) to the power storage unit ; the method further comprises: detecting an occurrence of the grid loss, and in occurrence of the grid loss, disconnecting the first electrical converter from the electrical generator (G), and connecting the second electrical converter to the electrical generator (G), wherein the electrical generator (G) is operated with a reduced rotation speed characterized in that the second electrical convertor is disconnected from the electrical generator (G) upon detection of an output voltage level of the electrical generator (G) is below a first output threshold (OT1) and connected to the electrical generator (G) upon detection of the output voltage level of the electrical generator (G) is above a second output threshold (OT2), the second output threshold being larger than the first output threshold. a power storage unit ; a number of power consuming units being grouped into at least a first group of power consuming units and a second group of power consuming units , the first group of power consuming units being powered by the power storage unit ; and a first electrical converter for connecting the generator (G) to the electrical grid ; and a second electrical converter for connecting the electrical generator (G) to the power storage unit ; detecting an occurrence of the grid loss, and in occurrence of the grid loss, disconnecting the first electrical converter from the electrical generator (G), and connecting the second electrical converter to the electrical generator (G), wherein the electrical generator (G) is operated with a reduced rotation speed characterized in that the second electrical convertor is disconnected from the electrical generator (G) upon detection of an output voltage level of the electrical generator (G) is below a first output threshold (OT1) and connected to the electrical generator (G) upon detection of the output voltage level of the electrical generator (G) is above a second output threshold (OT2), the second output threshold being larger than the first output threshold.
A sintered body containing alumina crystal particles and zirconia crystal particles as main components, wherein the zirconia crystal particles include tetragonal crystal particles and satisfy relations 0%≤ A≤ 3%, 3%≤ B ≤22% and 77%≤ C ≤96%, wherein A represents a ratio of a number a of first zirconia crystal particles to the total number N of the zirconia crystal particles, wherein each of the first zirconia crystal particles is surrounded by only the zirconia crystal particles, B represents a ratio of a number b of second zirconia crystal particles to the total number N of the zirconia crystal particles, wherein each of the second zirconia crystal particles is surrounded by only the alumina crystal particles, C represents a ratio of a number c of third zirconia crystal particles to the total number N of the zirconia crystal particles, wherein each of the third zirconia crystal particles is surrounded by both the zirconia crystal particle and the alumina crystal particle, N represents a total number of the zirconia crystal particles in a 10 μm square area at any cut plane of the sintered body, and the number N is equal to or greater than a value 140.