mhurhangee/patent-ind-claim-en huggingface dataset:
Probe body of an optical probe assembly , the probe assembly being designed for measuring a distance to an object while being carried by a probe head of a coordinate measuring machine, the probe body comprising • a coupling unit at a first end of the probe body designed for providing coupling of the probe body to the probe head of a coordinate measuring machine, • a light guiding element for transmitting original source light supplied by the probe head from the coupling unit to a second end of the probe body and • a stylus , wherein the free end of the stylus represents the second end, characterised by a micro-optics probe-interface at the second end of the probe body , the probe-interface comprising • a source light emitting element providing emission of the original source light in defined direction relative to the second end and with basically an emitting divergence defined by the light guiding element and/or defined by the source light emitting element and • a mechanical probe-coupling designed to receive a coupling counterpart being provided by a mechanical component-coupling of a beam-defining optical component of the optical probe assembly , wherein • the original source light is providable by the probe body with the emitting divergence and • desired measuring light with desired measuring light properties for measurement is providable by coupling of the beam-defining optical component . • a coupling unit at a first end of the probe body designed for providing coupling of the probe body to the probe head of a coordinate measuring machine, • a light guiding element for transmitting original source light supplied by the probe head from the coupling unit to a second end of the probe body and • a stylus , wherein the free end of the stylus represents the second end, • a source light emitting element providing emission of the original source light in defined direction relative to the second end and with basically an emitting divergence defined by the light guiding element and/or defined by the source light emitting element and • a mechanical probe-coupling designed to receive a coupling counterpart being provided by a mechanical component-coupling of a beam-defining optical component of the optical probe assembly , wherein • the original source light is providable by the probe body with the emitting divergence and • desired measuring light with desired measuring light properties for measurement is providable by coupling of the beam-defining optical component .
An inspection apparatus comprising: a light emitting unit configured to emit light to a sealing portion of a package containing a light energy absorbing material, the light having a wavelength absorbable by the light energy absorbing material ; a light receiving unit configured to receive thermal radiation from the sealing portion as thermal information; a controller device including multiple image processing algorithms, the control device configured to: acquire the thermal information on the sealing portion from the light receiving unit as a two-dimensional image; determine whether the sealing portion is pass or fail based on the two-dimensional image acquired; and discriminate a type of a sealing defect from other types of sealing defects previously set in the multiple image processing algorithms in response to a determination that the sealing portion is fail. a light emitting unit configured to emit light to a sealing portion of a package containing a light energy absorbing material, the light having a wavelength absorbable by the light energy absorbing material ; a light receiving unit configured to receive thermal radiation from the sealing portion as thermal information; a controller device including multiple image processing algorithms, the control device configured to: acquire the thermal information on the sealing portion from the light receiving unit as a two-dimensional image; determine whether the sealing portion is pass or fail based on the two-dimensional image acquired; and discriminate a type of a sealing defect from other types of sealing defects previously set in the multiple image processing algorithms in response to a determination that the sealing portion is fail. acquire the thermal information on the sealing portion from the light receiving unit as a two-dimensional image; determine whether the sealing portion is pass or fail based on the two-dimensional image acquired; and discriminate a type of a sealing defect from other types of sealing defects previously set in the multiple image processing algorithms in response to a determination that the sealing portion is fail.
A light guide plate comprising a first layer, a second layer, and a third layer, configured to guide light from a light source, wherein each of the layers is configured to control a ratio of light reflected thereby and light transmitted therethrough; wherein a refractive index of the second layer is different than a refractive index of the first layer and a refractive index of the third layer; wherein a difference between the refractive index of the first layer and the refractive index of the second layer is at least about 0.2; wherein the refractive index of the second layer is different than the refractive index of the third layer, wherein a difference between the refractive index of the second layer and the refractive index of the third layer is at least about 0.2; wherein each of the refractive index of the first layer, the refractive index of the second layer, and the refractive index of the third layer is about 1.2 to about 2.0; wherein a thickness of the first layer and a thickness of the third layer are each about 0.1 mm to about 5 mm, wherein the thickness of the first layer is different than the thickness of the third layer, the thickness of the first layer being less than the thickness of the third layer; wherein the light guide plate further comprises an input grating and an output grating disposed on the third layer. wherein a refractive index of the second layer is different than a refractive index of the first layer and a refractive index of the third layer; wherein a difference between the refractive index of the first layer and the refractive index of the second layer is at least about 0.2; wherein the refractive index of the second layer is different than the refractive index of the third layer, wherein a difference between the refractive index of the second layer and the refractive index of the third layer is at least about 0.2; wherein each of the refractive index of the first layer, the refractive index of the second layer, and the refractive index of the third layer is about 1.2 to about 2.0; wherein a thickness of the first layer and a thickness of the third layer are each about 0.1 mm to about 5 mm, wherein the thickness of the first layer is different than the thickness of the third layer, the thickness of the first layer being less than the thickness of the third layer; wherein the light guide plate further comprises an input grating and an output grating disposed on the third layer.
A flowmeter for detecting fluid flow rates in a pipe comprising: a tube having a channel disposed in the pipe through which fluid in the pipe flows, wherein the tube is made of a sound absorbing material so that essentially all non-fluid paths of sound are absorbed and wherein the tube forms a seal with the pipe essentially preventing fluid in the pipe leaking around the tube , the tube being made of a polymer filled with attenuative particles; an upstream ultrasonic transducer in contact with the pipe and positioned in alignment with the channel so that plane waves generated by the upstream transducer propagates through the channel; a downstream ultrasonic transducer in contact with the pipe and positioned in alignment with the channel so that plane waves generated by the downstream transducer propagate through the channel and are received by the upstream transducer which produces an upstream transducer signal, the downstream transducer receiving the plane waves from the upstream transducer and providing a downstream transducer signal; wherein the upstream transducer and the downstream transducer extend through the pipe wall and acoustically communicate with the pipe interior; and a controller in communication with the upstream and downstream transducers (16. 18) which calculate fluid flow rate from the upstream transducer signal and the downstream transducer signal. a tube having a channel disposed in the pipe through which fluid in the pipe flows, wherein the tube is made of a sound absorbing material so that essentially all non-fluid paths of sound are absorbed and wherein the tube forms a seal with the pipe essentially preventing fluid in the pipe leaking around the tube , the tube being made of a polymer filled with attenuative particles; an upstream ultrasonic transducer in contact with the pipe and positioned in alignment with the channel so that plane waves generated by the upstream transducer propagates through the channel; a downstream ultrasonic transducer in contact with the pipe and positioned in alignment with the channel so that plane waves generated by the downstream transducer propagate through the channel and are received by the upstream transducer which produces an upstream transducer signal, the downstream transducer receiving the plane waves from the upstream transducer and providing a downstream transducer signal; wherein the upstream transducer and the downstream transducer extend through the pipe wall and acoustically communicate with the pipe interior; and a controller in communication with the upstream and downstream transducers (16. 18) which calculate fluid flow rate from the upstream transducer signal and the downstream transducer signal.
An apparatus , comprising: a meter device with a rotating component configured to rotate in response to a flowing fluid ; an indexing unit coupled with the meter device and configured to process signals from the meter device resulting in values for measured parameters of the flowing fluid ; and an energy harvester coupled to the pair of impellers, the energy harvester comprising a first harvesting unit and a second harvesting unit that cooperate to generate an electrical signal , the first harvesting unit configured to co-rotate with the pair of impellers , characterized in that the second harvesting unit comprises a hollow, magnetic core disposed proximate the first harvesting unit . a meter device with a rotating component configured to rotate in response to a flowing fluid ; an indexing unit coupled with the meter device and configured to process signals from the meter device resulting in values for measured parameters of the flowing fluid ; and an energy harvester coupled to the pair of impellers, the energy harvester comprising a first harvesting unit and a second harvesting unit that cooperate to generate an electrical signal , the first harvesting unit configured to co-rotate with the pair of impellers , characterized in that the second harvesting unit comprises a hollow, magnetic core disposed proximate the first harvesting unit .
A method for spatially tagging nucleic acids of a biological specimen, comprising: (a) providing an array of beads on a solid support, wherein different nucleic acid probes are attached to different beads in the array, wherein the different nucleic acid probes each comprise a barcode sequence, wherein each bead comprises a different barcode sequence from other beads on the solid support, and wherein each of the different nucleic acid probes comprises a target capture sequence; (b) performing a decoder probe hybridization reaction on the solid support to determine the barcode sequences at the randomly located probes on the solid support; (c) contacting a biological specimen with the array of beads; (d) hybridizing the different nucleic acid probes to target nucleic acids from portions of the biological specimen that are proximal to the beads; (e) extending the different nucleic acid probes to produce extended probes that comprise sequences from the target nucleic acids and the barcode sequences, thereby tagging the nucleic acids of the biological specimen; (f) removing the extended probes from the array of beads, optionally further comprising pooling the extended probes to form a mixture of the extended probes that have been removed from the array of beads; and (g) attaching the extended probes that have been removed from the solid support to a second solid support. (a) providing an array of beads on a solid support, wherein different nucleic acid probes are attached to different beads in the array, wherein the different nucleic acid probes each comprise a barcode sequence, wherein each bead comprises a different barcode sequence from other beads on the solid support, and wherein each of the different nucleic acid probes comprises a target capture sequence; (b) performing a decoder probe hybridization reaction on the solid support to determine the barcode sequences at the randomly located probes on the solid support; (c) contacting a biological specimen with the array of beads; (d) hybridizing the different nucleic acid probes to target nucleic acids from portions of the biological specimen that are proximal to the beads; (e) extending the different nucleic acid probes to produce extended probes that comprise sequences from the target nucleic acids and the barcode sequences, thereby tagging the nucleic acids of the biological specimen; (f) removing the extended probes from the array of beads, optionally further comprising pooling the extended probes to form a mixture of the extended probes that have been removed from the array of beads; and (g) attaching the extended probes that have been removed from the solid support to a second solid support.
A method for polishing a germanium wafer used as a wafer to be bonded, and having a surface to be polished composed of germanium, comprising: adding aqueous hydrogen peroxide to a first polishing slurry of an aqueous alkaline solution containing colloidal silica which is used for polishing a silicon single crystalline wafer to make a second polishing slurry, and polishing the surface of the germanium wafer by using the second polishing slurry; wherein the aqueous hydrogen peroxide is added to the first polishing slurry in a concentration such that 30 wt% aqueous hydrogen peroxide is added in a volume of 0.005 vol% or more and 0.05 vol% or less based on the volume of the first polishing slurry, and the surface of the germanium wafer is polished by using the second polishing slurry. adding aqueous hydrogen peroxide to a first polishing slurry of an aqueous alkaline solution containing colloidal silica which is used for polishing a silicon single crystalline wafer to make a second polishing slurry, and polishing the surface of the germanium wafer by using the second polishing slurry; wherein the aqueous hydrogen peroxide is added to the first polishing slurry in a concentration such that 30 wt% aqueous hydrogen peroxide is added in a volume of 0.005 vol% or more and 0.05 vol% or less based on the volume of the first polishing slurry, and the surface of the germanium wafer is polished by using the second polishing slurry.
A package comprising a material suitable for use in packages comprising nano-sized cellulose and an ethylene scavenging and/or ethylene absorbing agent, wherein the ethylene scavenging agent or ethylene absorbing agent is present in the form of a label on which a top coating is arranged and wherein the ethylene scavenging agent and/or ethylene absorbing agent can be exposed by an increase in moisture or humidity which dissolves the protective coating or by removal of the top coating covering the ethylene scavenging agent and/or ethylene absorbing agent.
A straddled vehicle comprising: a headlight including a body including a light source , a first attachment portion located at one of leftward or rightward of the body , and a second attachment portion located another of leftward or rightward of the body ; a first stay supporting the first attachment portion of the headlight ; a second stay supporting the second attachment portion of the headlight ; a first bolt extending in a left-right direction and fixing the first attachment portion of the headlight to the first stay ; and a second bolt extending in the left-right direction and fixing the second attachment portion of the headlight to the second stay , wherein the first attachment portion of the headlight , the second attachment portion of the headlight , the first stay , and the second stay include a first bolt hole , a second bolt hole , a third bolt hole , and a fourth bolt hole , respectively, the first bolt is inserted in the first bolt hole and the third bolt hole , the second bolt is inserted in the second bolt hole and the fourth bolt hole , at least one of the first bolt hole and the third bolt hole is a first long hole elongated in a front-rear direction, and at least one of the second bolt hole and the fourth bolt hole is a first elastic hole surrounded by an elastic body. a headlight including a body including a light source , a first attachment portion located at one of leftward or rightward of the body , and a second attachment portion located another of leftward or rightward of the body ; a body including a light source , a first attachment portion located at one of leftward or rightward of the body , and a second attachment portion located another of leftward or rightward of the body ; a first stay supporting the first attachment portion of the headlight ; a second stay supporting the second attachment portion of the headlight ; a first bolt extending in a left-right direction and fixing the first attachment portion of the headlight to the first stay ; and a second bolt extending in the left-right direction and fixing the second attachment portion of the headlight to the second stay , wherein the first attachment portion of the headlight , the second attachment portion of the headlight , the first stay , and the second stay include a first bolt hole , a second bolt hole , a third bolt hole , and a fourth bolt hole , respectively, the first bolt is inserted in the first bolt hole and the third bolt hole , the second bolt is inserted in the second bolt hole and the fourth bolt hole , at least one of the first bolt hole and the third bolt hole is a first long hole elongated in a front-rear direction, and at least one of the second bolt hole and the fourth bolt hole is a first elastic hole surrounded by an elastic body.
An energy storage apparatus suitable for mounting on a printed circuit board using a solder reflow process, the apparatus comprising: a sealed housing body comprising a positive internal contact and a negative internal contact each disposed within the body and each respectively in electrical communication with a positive external contact and a negative external contact , each of the external contacts providing electrical communication to the exterior of the body ; an electric double layer capacitor (EDLC) energy storage cell disposed within a cavity in the body comprising a stack of alternating electrode layers and electrically insulating separator layers; an electrolyte disposed within the cavity and wetting the electrode layers; a positive lead electrically connecting a first group of one or more of the electrode layers to the positive internal contact ; and a negative lead electrically connecting a second group of one or more of the electrode layers to the negative internal contact ; wherein each of the electrode layers comprises an energy storage media that is free from binding agents and wherein the energy storage media comprises a network of carbon nanotubes defining void spaces; wherein a carbonaceous material is located in the void spaces and bound by the network of carbon nanotubes. a sealed housing body comprising a positive internal contact and a negative internal contact each disposed within the body and each respectively in electrical communication with a positive external contact and a negative external contact , each of the external contacts providing electrical communication to the exterior of the body ; an electric double layer capacitor (EDLC) energy storage cell disposed within a cavity in the body comprising a stack of alternating electrode layers and electrically insulating separator layers; an electrolyte disposed within the cavity and wetting the electrode layers; a positive lead electrically connecting a first group of one or more of the electrode layers to the positive internal contact ; and a negative lead electrically connecting a second group of one or more of the electrode layers to the negative internal contact ; wherein each of the electrode layers comprises an energy storage media that is free from binding agents and wherein the energy storage media comprises a network of carbon nanotubes defining void spaces; wherein a carbonaceous material is located in the void spaces and bound by the network of carbon nanotubes.
A liquid crystal display comprising: a display panel comprising: a first substrate ; a second substrate disposed opposite to the first substrate; and a liquid crystal layer disposed between the first substrate and the second substrate; a light source arranged to emit light; a glass light guide plate arranged to diffuse the light from the light source to the display panel; a first bonding member arranged to bond the first substrate to the glass light guide plate; and a reflecting layer disposed on a second surface of the glass light guide plate, which is opposite to a first surface of the glass light guide plate facing the first substrate, wherein the reflecting layer comprises a first reflecting film deposited on the second surface of the glass light guide plate and a second reflecting film deposited on the first reflecting film, wherein the second reflecting film has a first refractive index, and the first reflecting film has a refractive index higher than the first refractive index, and wherein the first bonding member comprises a double-sided adhesive film or a double-sided cushion tape. a display panel comprising: a first substrate ; a second substrate disposed opposite to the first substrate; and a liquid crystal layer disposed between the first substrate and the second substrate; a first substrate ; a second substrate disposed opposite to the first substrate; and a liquid crystal layer disposed between the first substrate and the second substrate; a light source arranged to emit light; a glass light guide plate arranged to diffuse the light from the light source to the display panel; a first bonding member arranged to bond the first substrate to the glass light guide plate; and a reflecting layer disposed on a second surface of the glass light guide plate, which is opposite to a first surface of the glass light guide plate facing the first substrate, wherein the reflecting layer comprises a first reflecting film deposited on the second surface of the glass light guide plate and a second reflecting film deposited on the first reflecting film, wherein the second reflecting film has a first refractive index, and the first reflecting film has a refractive index higher than the first refractive index, and wherein the first bonding member comprises a double-sided adhesive film or a double-sided cushion tape.
A modified liquid diene rubber comprising a modifying group (p) partly containing a (meth)acryloyl group therein and a monomer unit (a1) derived from a conjugated diene compound, wherein a carbon-carbon double bond derived from the conjugated diene compound has a hydrogenation rate of 70 to 90 mol%, and the modifying group (p) has a functional group equivalent weight of 700 to 20,000 g/eq.