mhurhangee/ep-ind-claims huggingface dataset:
A flexible packaging web (a) comprising a non-oriented sealant film wherein the non-oriented sealant film comprises a thermoplastic base layer of ethylene/vinyl alcohol copolymer, polyamide or blends thereof, a heat sealing layer of polyethylene, polyethylene copolymer, ionomer or blends thereof, and a metal coating deposited on, and in direct contact with, the base layer, wherein the metal coating has a thickness of between 1.0 to 100 nanometers and an optical density of 1.0 to 3.0; wherein the non-oriented sealant film has a secant modulus according to ASTM D 882 at 1% and 2% strain of less than 120,000 psi (827371 kPa) and an elongation at break according to ASTM D 882 of greater than 150% and wherein the non-oriented sealant film is a coextruded blown film; and (b) wherein the packaging web has an oxygen gas transmission rate of between 0 to 10.0 cm 3 /100 in 2 /24 hours (0 to 155 cm 3 /m 2 /24 hours) at 73° F (23° C) and 0% relative humidity and a water vapor transmission rate of between 0 to 0.1 g/100 in 2 /24 hours (0 to 1.55 g/m 2 /24 hours) at 100° F (38° C) and 90% relative humidity. (a) comprising a non-oriented sealant film wherein the non-oriented sealant film comprises a thermoplastic base layer of ethylene/vinyl alcohol copolymer, polyamide or blends thereof, a heat sealing layer of polyethylene, polyethylene copolymer, ionomer or blends thereof, and a metal coating deposited on, and in direct contact with, the base layer, wherein the metal coating has a thickness of between 1.0 to 100 nanometers and an optical density of 1.0 to 3.0; wherein the non-oriented sealant film has a secant modulus according to ASTM D 882 at 1% and 2% strain of less than 120,000 psi (827371 kPa) and an elongation at break according to ASTM D 882 of greater than 150% and wherein the non-oriented sealant film is a coextruded blown film; and a thermoplastic base layer of ethylene/vinyl alcohol copolymer, polyamide or blends thereof, a heat sealing layer of polyethylene, polyethylene copolymer, ionomer or blends thereof, and a metal coating deposited on, and in direct contact with, the base layer, wherein the metal coating has a thickness of between 1.0 to 100 nanometers and an optical density of 1.0 to 3.0; (b) wherein the packaging web has an oxygen gas transmission rate of between 0 to 10.0 cm 3 /100 in 2 /24 hours (0 to 155 cm 3 /m 2 /24 hours) at 73° F (23° C) and 0% relative humidity and a water vapor transmission rate of between 0 to 0.1 g/100 in 2 /24 hours (0 to 1.55 g/m 2 /24 hours) at 100° F (38° C) and 90% relative humidity.
Method for operating an image-recording device in a motor vehicle by: - recording first image data with a first exposure time in dependence on a first environmental image detected within a detection range of the image recording device, and - recording second image data with a second exposure time in dependence on a second environmental image detected within the detection range of the image recording device, and - determining an image data subarea of the first and/or second image data (22, 24) representing a prediction subarea of the respectively acquired environmental image, wherein the image data subarea is determined depending on a predicted trajectory of the motor vehicle and a predefined prediction time, characterised by - setting the first exposure time in dependence on the first image data, and - setting the second exposure time in dependence on the image data subarea, wherein setting of the first exposure time takes place in dependence of the total recorded detection area of the image recording device and wherein the subarea of an environmental image detected at a first time by the subarea represented by the prediction subarea, largely coincides with the complete area of the environmental image detected at a second time by the image recording device, wherein the time difference between the second time and the first time is given by the prediction time. - recording first image data with a first exposure time in dependence on a first environmental image detected within a detection range of the image recording device, and - recording second image data with a second exposure time in dependence on a second environmental image detected within the detection range of the image recording device, and - determining an image data subarea of the first and/or second image data (22, 24) representing a prediction subarea of the respectively acquired environmental image, wherein the image data subarea is determined depending on a predicted trajectory of the motor vehicle and a predefined prediction time, - setting the first exposure time in dependence on the first image data, and - setting the second exposure time in dependence on the image data subarea, wherein setting of the first exposure time takes place in dependence of the total recorded detection area of the image recording device and wherein the subarea of an environmental image detected at a first time by the subarea represented by the prediction subarea, largely coincides with the complete area of the environmental image detected at a second time by the image recording device, wherein the time difference between the second time and the first time is given by the prediction time.
A glassware forming machine that includes: a machine section box having an upwardly directed cooling air outlet opening, a mold arm (22 or 24) disposed above said section box and movable between mold-open and mold-closed positions, an air manifold (32 or 34) carried by said mold arm overlying said section box and said outlet opening for delivering cooling air to at least one glassware mold (26, 28) carried by said mold arm, said manifold having a cooling air inlet opening aligned with said cooling air outlet opening of said section box, and a valve plate mounted on said section box for movement overlying said outlet opening, and having a valve plate opening aligned with said outlet opening, characterized in that said valve plate is mounted for movement on said section box, and said valve plate is operatively coupled to said mold arm (22 or 24) such that position of said valve plate and overlap between said valve plate opening and said outlet opening vary as a function of motion of said mold arm between said mold-closed and mold-open positions. a machine section box having an upwardly directed cooling air outlet opening, a mold arm (22 or 24) disposed above said section box and movable between mold-open and mold-closed positions, an air manifold (32 or 34) carried by said mold arm overlying said section box and said outlet opening for delivering cooling air to at least one glassware mold (26, 28) carried by said mold arm, said manifold having a cooling air inlet opening aligned with said cooling air outlet opening of said section box, and a valve plate mounted on said section box for movement overlying said outlet opening, and having a valve plate opening aligned with said outlet opening, characterized in that said valve plate is mounted for movement on said section box, and said valve plate is operatively coupled to said mold arm (22 or 24) such that position of said valve plate and overlap between said valve plate opening and said outlet opening vary as a function of motion of said mold arm between said mold-closed and mold-open positions.
A sound attenuating building material (10, 110), comprising: a core matrix (14, 114) disposed on a facing material (34, 134) characterized in that the core matrix (14, 114) comprises: a plurality of microparticles in an amount of from about 25 wt.% to about 60 wt.%, wherein each microparticle has an average size from about 10 to about 1500 microns; and a sodium silicate binder configured to support the microparticles, the sodium silicate binder being in an amount of from about 40 wt.% to about 60 wt.%, wherein a side of the core matrix (14, 114) is at least partially exposed to create an at least substantially exposed face (18, 118) of the building material (10, 110) to increase sound attenuation by reducing reflections from sound waves impinging on the building material (10, 110) as compared to a control building material lacking an exposed face (18, 118). a core matrix (14, 114) disposed on a facing material (34, 134) characterized in that the core matrix (14, 114) comprises: a plurality of microparticles in an amount of from about 25 wt.% to about 60 wt.%, wherein each microparticle has an average size from about 10 to about 1500 microns; and a sodium silicate binder configured to support the microparticles, the sodium silicate binder being in an amount of from about 40 wt.% to about 60 wt.%, wherein a side of the core matrix (14, 114) is at least partially exposed to create an at least substantially exposed face (18, 118) of the building material (10, 110) to increase sound attenuation by reducing reflections from sound waves impinging on the building material (10, 110) as compared to a control building material lacking an exposed face (18, 118). a plurality of microparticles in an amount of from about 25 wt.% to about 60 wt.%, wherein each microparticle has an average size from about 10 to about 1500 microns; and a sodium silicate binder configured to support the microparticles, the sodium silicate binder being in an amount of from about 40 wt.% to about 60 wt.%,
A message processing method, wherein the method comprises: receiving, by a mobility management entity, MME, a first message sent by an evolved NodeB, eNB, wherein: multiple virtual machines are deployed in the MME; the first message comprises a non-access stratum, NAS, message sent by user equipment, UE, and identification information of a target virtual machine; determining, by the MME according to the identification information of the target virtual machine, the target virtual machine from the multiple virtual machines, and allocating the non-access stratum message to the target virtual machine for processing; and returning, by the MME, a first response message generated by the target virtual machine to the eNB, so that the first response message is sent to the UE by using the eNB; wherein the receiving, by a mobility management entity MME, a first message sent by an evolved NodeB eNB comprises: receiving, by the MME by using the eNB, the NAS message sent by the UE, wherein: the NAS message is carried in a connection establishment request sent by the UE to the eNB; the NAS message carries the identification information of the target virtual machine; and the identification information of the target virtual machine is sent by the MME to the UE for storing. receiving, by a mobility management entity, MME, a first message sent by an evolved NodeB, eNB, wherein: multiple virtual machines are deployed in the MME; the first message comprises a non-access stratum, NAS, message sent by user equipment, UE, and identification information of a target virtual machine; determining, by the MME according to the identification information of the target virtual machine, the target virtual machine from the multiple virtual machines, and allocating the non-access stratum message to the target virtual machine for processing; and returning, by the MME, a first response message generated by the target virtual machine to the eNB, so that the first response message is sent to the UE by using the eNB; wherein the receiving, by a mobility management entity MME, a first message sent by an evolved NodeB eNB comprises: receiving, by the MME by using the eNB, the NAS message sent by the UE, wherein: the NAS message is carried in a connection establishment request sent by the UE to the eNB; the NAS message carries the identification information of the target virtual machine; and the identification information of the target virtual machine is sent by the MME to the UE for storing.
An apparatus to determine the percentage of the Carbon Equivalent, Carbon and Silicon in a liquid ferrous metal sample; said apparatus comprising a refractory cup structure; a cavity; a thermocouple wire; a quartz tube shell; a base; chilling agents, a holder, a compensating cable, and an electronic device; wherein the refractory cup structure is made of sand coated with resin; the diameter and height of said cup structure are proportioned to lie within the range of 20 to 40 mm and 10 to 25 mm respectively; the cavity dimensioned to accommodate a weight of the liquid metal sample between about 50 to 180 gm in weight; the thermocouple wire is capable of temperature measurement of said liquid ferrous metal sample in the range of 1050 to 1400 deg C; said quartz tube shell is arranged horizontally within said cup structure such that it covers said thermocouple wire; said quartz tube shell preventing contact between said liquid ferrous metal and said thermocouple wire and eliminating the possibility of contamination; said quartz tube shell sealed with refractory agents to prevent leakage from hole of said cup structure; a mixture of refractory binders and 0.20 to 0.50 gm chilling agents arranged at the bottom of said refractory cup structure; said cup possessing a suitable base and being suitably dimensioned to fit the holder; said holder being arranged to carry the measurement signal to the electronic device via said compensating cable for further analysis of the percentage of Carbon equivalent, Carbon and Silicon in said liquid ferrous metal sample.
A filter material (100, 200) for use in fuel-water separation comprising: a particle filtration layer (110, 210) substantially comprising binder fibers and media fibers; and a coalescing layer (120, 220) downstream of the particle filtration layer (110, 210) and coupled to the particle filtration layer (110, 210), the coalescing layer (120, 220) comprising at least 70% glass fibers by weight, wherein the filter material (100, 200) is configured to filter out particulates and coalesce free water in a fuel stream, wherein each of the particle filtration layer (110, 210) and the coalescing layer (120, 220) has an air permeability, and wherein a ratio of the air permeability of the particle filtration layer (110, 210) to the air permeability of the coalescing layer (120, 220) ranges from 3:1 to 15:1. a particle filtration layer (110, 210) substantially comprising binder fibers and media fibers; and a coalescing layer (120, 220) downstream of the particle filtration layer (110, 210) and coupled to the particle filtration layer (110, 210), the coalescing layer (120, 220) comprising at least 70% glass fibers by weight, wherein the filter material (100, 200) is configured to filter out particulates and coalesce free water in a fuel stream, wherein each of the particle filtration layer (110, 210) and the coalescing layer (120, 220) has an air permeability, and wherein a ratio of the air permeability of the particle filtration layer (110, 210) to the air permeability of the coalescing layer (120, 220) ranges from 3:1 to 15:1.
An olefin multilayer biaxially stretched film, comprising a base layer unit containing a cyclic olefin resin, and a constituent layer containing a polypropylene resin laminated on both surfaces of the base layer unit, having a dielectric breakdown voltage at 135°C, measured in accordance with JIS C 2330 as described in the specification of 280 V/μm or more, wherein the polypropylene resin has a meso-pentad fraction of 0.95 or more and a melting point higher than 160°C, and wherein the thickness of the film is in the range of 0.5 μm or more and less than 15 μm.
Method for performing topographic measurement that comprises: - providing a sample comprising a first surface provided with a plurality of salient patterns; - acquiring a plurality of images of the first surface of the sample, the plurality of images comprising reference images of the sample, each reference image corresponding to the sample illuminated with a structured light, the structured lights of the reference images each defining several repetitive patterns and differing from one another by the phase and/or the frequency of the repetitive patterns; characterised in that the plurality of images comprises at least one first series of images of the first surface of the sample, the first series of images being acquired when the first surface of the sample is illuminated by a first structured light, the first structured light defining several repetitive patterns and the images of the first series of images differing from one another by the application angle (α) of the first structured light with respect to the first surface; - comparing the images of the first series of images so as to determine the presence of at least one artefact on at least one image of the first series of images; - forming at least one working image at least from the first series of images, the at least one working image being devoid of said at least one artefact or reducing the extent of said at least one artefact; - calculating at least one quantity representative of the sample from the at least one working image and the reference images. - providing a sample comprising a first surface provided with a plurality of salient patterns; - acquiring a plurality of images of the first surface of the sample, the plurality of images comprising reference images of the sample, each reference image corresponding to the sample illuminated with a structured light, the structured lights of the reference images each defining several repetitive patterns and differing from one another by the phase and/or the frequency of the repetitive patterns; characterised in that the plurality of images comprises at least one first series of images of the first surface of the sample, the first series of images being acquired when the first surface of the sample is illuminated by a first structured light, the first structured light defining several repetitive patterns and the images of the first series of images differing from one another by the application angle (α) of the first structured light with respect to the first surface; - comparing the images of the first series of images so as to determine the presence of at least one artefact on at least one image of the first series of images; - forming at least one working image at least from the first series of images, the at least one working image being devoid of said at least one artefact or reducing the extent of said at least one artefact; - calculating at least one quantity representative of the sample from the at least one working image and the reference images.
A method comprising: receiving an instruction to lookup an entry in a content addressable memory; determining, at a controller, when valid data exists in at least one bank of the content addressable memory based on at least one input representing the at least one bank, wherein each bank of the content addressable memory comprises multiple rows of data stored in the content addressable memory, and wherein the at least one input is formed by a logical OR of valid data bits associated with each of the rows of the bank, wherein the valid data bits indicate whether valid data exists in corresponding rows of the multiple rows of a bank; and implementing a power management technique when valid data does not exist in the at least one bank, wherein the power management technique comprises reducing power consumption of at least one bank that has no valid data, and characterized in selectively moving a row of data of the content addressable memory that has valid data from a first bank to a second bank; and reducing power to the first bank when no valid data exists in the first bank. receiving an instruction to lookup an entry in a content addressable memory; determining, at a controller, when valid data exists in at least one bank of the content addressable memory based on at least one input representing the at least one bank, wherein each bank of the content addressable memory comprises multiple rows of data stored in the content addressable memory, and wherein the at least one input is formed by a logical OR of valid data bits associated with each of the rows of the bank, wherein the valid data bits indicate whether valid data exists in corresponding rows of the multiple rows of a bank; and implementing a power management technique when valid data does not exist in the at least one bank, wherein the power management technique comprises reducing power consumption of at least one bank that has no valid data, and characterized in selectively moving a row of data of the content addressable memory that has valid data from a first bank to a second bank; and reducing power to the first bank when no valid data exists in the first bank.
Preparation system for preparing a sample for electron microscopy, comprising: - a container containing a liquid cryogen, - a liquid handling system comprising a dispensing head, wherein said liquid handling system is configured to aspirate and dispense a volume of a sample via the dispensing head, - a support structure that is configured to accommodate the sample, - a temperature-controlled stage that is configured to keep said support structure at a pre-defined temperature when the support structure is arranged on the temperature-controlled stage, - a first adapter configured to hold said support structure, and - a transfer mechanism that is configured to be connected to the first adapter holding the support structure and to move said support structure into the container containing the liquid cryogen so that the sample on the support structure contacts the cryogen, characterized in that the system comprises a translation stage assembly that is configured to move the temperature-controlled stage relative to the liquid handling system, such that the dispensing head and the support structure can be brought in close proximity to each other so as to transfer the sample from the liquid handling system to the support structure, wherein the transfer mechanism is configured to pivot the first adapter together with the support structure into a vertical position above the container and to move the first adapter and the support structure downwards after said pivoting so that the sample on the support structure contacts the cryogen in the container. - a container containing a liquid cryogen, - a liquid handling system comprising a dispensing head, wherein said liquid handling system is configured to aspirate and dispense a volume of a sample via the dispensing head, - a support structure that is configured to accommodate the sample, - a temperature-controlled stage that is configured to keep said support structure at a pre-defined temperature when the support structure is arranged on the temperature-controlled stage, - a first adapter configured to hold said support structure, and - a transfer mechanism that is configured to be connected to the first adapter holding the support structure and to move said support structure into the container containing the liquid cryogen so that the sample on the support structure contacts the cryogen,