mhurhangee/ep-ind-claims huggingface dataset:
An organic light-emitting display device comprising: a plurality of pixels each comprising: a first region comprising a light-emitting region for emitting light, a first electrode and an emission layer covering the first electrode being located in the light-emitting region; and a second region adjacent to the first region and comprising a transmissive region for transmitting external light through the display device; a third region between the pixels; a first auxiliary layer in the first region on the emission layer and in the third region; a second electrode formed from a metal on the first auxiliary layer in the first and third regions, wherein the first auxiliary layer comprises a first material; a second auxiliary layer, comprising a second material covering the second electrode and located in the first and second regions and not in the third region; and a third electrode (223, 224) comprising a metal on the second electrode in the third region, wherein the adhesion of the metal of the third electrode with the metal of the second electrode is greater than the adhesion of the metal of the third electrode with the second material, such that the third electrode may not be favourably deposited in the first region and the second region. a plurality of pixels each comprising: a first region comprising a light-emitting region for emitting light, a first electrode and an emission layer covering the first electrode being located in the light-emitting region; and a second region adjacent to the first region and comprising a transmissive region for transmitting external light through the display device; a first region comprising a light-emitting region for emitting light, a first electrode and an emission layer covering the first electrode being located in the light-emitting region; and a second region adjacent to the first region and comprising a transmissive region for transmitting external light through the display device; a third region between the pixels; a first auxiliary layer in the first region on the emission layer and in the third region; a second electrode formed from a metal on the first auxiliary layer in the first and third regions, wherein the first auxiliary layer comprises a first material; a second auxiliary layer, comprising a second material covering the second electrode and located in the first and second regions and not in the third region; and a third electrode (223, 224) comprising a metal on the second electrode in the third region, wherein the adhesion of the metal of the third electrode with the metal of the second electrode is greater than the adhesion of the metal of the third electrode with the second material, such that the third electrode may not be favourably deposited in the first region and the second region.
An isolated nucleic acid molecule consisting of a sequence selected from the group consisting of SEQ ID NOS: 1, 2 and 4 as shown in table 1, wherein a + sign preceding a base of SEQ ID NOS: 1, 2 and 4 means that the base is an LNA modified base.
A fluid processing device, comprising: a controller configured to receive input indicative of a concentration of a fluid component within a bodily fluid; a centrifuge configured to receive and rotate a continuous-flow centrifuge chamber of a fluid flow circuit so as to separate the bodily fluid in the centrifuge chamber into at least first and second constituents in a separation procedure; and a pump system configured to convey said bodily fluid through the fluid flow circuit and into the centrifuge chamber at first and second rates during said separation procedure, wherein the controller is configured to control the centrifuge to rotate the centrifuge chamber at a first rotation rate when the pump system is conveying said bodily fluid into the centrifuge chamber at the first rate during said separation procedure, the controller is configured to control the centrifuge to rotate the centrifuge chamber at a second rotation rate when the pump system is conveying said bodily fluid into the centrifuge chamber at the second rate during said separation procedure, and said first and second rotation rates are different, with each of the first and second rotation rates being based at least in part on the concentration of the fluid component within the bodily fluid, the rate at which the pump system is conveying said bodily fluid into the centrifuge chamber, and a target concentration of the fluid component in one of said first and second constituents and being controlled so as to achieve a substantially uniform separation efficiency. a controller configured to receive input indicative of a concentration of a fluid component within a bodily fluid; a centrifuge configured to receive and rotate a continuous-flow centrifuge chamber of a fluid flow circuit so as to separate the bodily fluid in the centrifuge chamber into at least first and second constituents in a separation procedure; and a pump system configured to convey said bodily fluid through the fluid flow circuit and into the centrifuge chamber at first and second rates during said separation procedure, wherein the controller is configured to control the centrifuge to rotate the centrifuge chamber at a first rotation rate when the pump system is conveying said bodily fluid into the centrifuge chamber at the first rate during said separation procedure, the controller is configured to control the centrifuge to rotate the centrifuge chamber at a second rotation rate when the pump system is conveying said bodily fluid into the centrifuge chamber at the second rate during said separation procedure, and said first and second rotation rates are different, with each of the first and second rotation rates being based at least in part on the concentration of the fluid component within the bodily fluid, the rate at which the pump system is conveying said bodily fluid into the centrifuge chamber, and a target concentration of the fluid component in one of said first and second constituents and being controlled so as to achieve a substantially uniform separation efficiency.
An electronic device comprising: at least one processor (120, 510); a first slot connected to the at least one processor (120, 510) and capable of containing a removable first SIM; a second slot selectively connectable to the at least one processor (120, 510) and capable of containing a removable second SIM; an eSIM (550, 201) selectively connectable to the at least one processor (120, 510) and included in the electronic device; and a switch configured to connect one of the second slot or the eSIM (550, 201) to the at least one processor (120, 510), wherein the at least one processor (120, 510) is configured to obtain, from a network, first information indicating whether the eSIM (550, 201) is supported by the network, based on the first information indicating that the eSIM (550, 201) is supported by the network, control, based on detection of a first event for using the second SIM, the switch such that the at least one processor (120, 510) is connected to the second slot, and control, based on detection of a second event for using the eSIM (550, 201), the switch such that the at least one processor (120, 510) is connected to the eSIM (550, 201), and based on the first information indicating that the eSIM (550, 201) is not supported by the network, control the switch such that the at least one processor (120, 510) is connected to the second slot. at least one processor (120, 510); a first slot connected to the at least one processor (120, 510) and capable of containing a removable first SIM; a second slot selectively connectable to the at least one processor (120, 510) and capable of containing a removable second SIM; an eSIM (550, 201) selectively connectable to the at least one processor (120, 510) and included in the electronic device; and a switch configured to connect one of the second slot or the eSIM (550, 201) to the at least one processor (120, 510), wherein the at least one processor (120, 510) is configured to obtain, from a network, first information indicating whether the eSIM (550, 201) is supported by the network, based on the first information indicating that the eSIM (550, 201) is supported by the network, control, based on detection of a first event for using the second SIM, the switch such that the at least one processor (120, 510) is connected to the second slot, and control, based on detection of a second event for using the eSIM (550, 201), the switch such that the at least one processor (120, 510) is connected to the eSIM (550, 201), and based on the first information indicating that the eSIM (550, 201) is not supported by the network, control the switch such that the at least one processor (120, 510) is connected to the second slot.
A cavity filter comprising at least one wall and at least one tuning conductor, one end of said tuning conductor being attached to said wall of the cavity filter, the tuning conductor extending into the cavity filter, wherein the tuning conductor comprises a hollow tubular portion extending along the whole longitudinal dimension of the tuning conductor, said wall of the cavity filter comprising an opening that overlaps with the hollow of said hollow tubular portion, the tuning conductor further comprising a hollow tubular isolation device of a non-conductive material, said hollow tubular isolation device being at least partly inserted into the hollow tubular portion, and wherein the tuning conductor further comprises an insertion element made of a conductive material and comprising a male thread that is engaged with an inner surface of the hollow tubular isolation device, wherein an outer surface of the part of the hollow tubular isolation device that is inserted into the hollow tubular portion has a constant cross-section, said constant cross-section being a disc or a disc section, and is at least partly complementary to an inner surface of the hollow tubular portion, wherein the inner surface of the hollow tubular portion has a constant cross-section and is a non-threaded along the whole longitudinal dimension of the tuning conductor, characterized in that the hollow tubular isolation device is made of a ductile material, and that the outer perimeter of the cross-section (6b, 6c) of the hollow tubular isolation device is slightly larger than the inner perimeter (4a, 4b) of the cross-section of the hollow tubular portion, such that the hollow tubular isolation device is retained in the hollow tubular portion by means of friction.
A process for manufacturing an optical element by hot-forming a glass sheet, comprising the steps of: - setting a mold provided with a surface reproducing the shape to be given to the glass sheet into a cavity of a base element of a muffle; - positioning the glass sheet on the mold with a peripheral edge superimposed to a closure area (14, 15) of the base element surrounding said cavity; - closing a cover of said muffle onto the base element, so that a closure area of the cover maintains the peripheral edge of the glass sheet in contact with the closure area (14, 15) of the base element; - running a thermal cycle including the step of warming up to a maximum temperature greater than the glass transition temperature of the glass and a step of controlled cooling; and - at or after reaching the maximum temperature, generating a pressure difference between the base element and the cover so as to press the glass sheet onto the mold, characterized in that said maximum temperature is greater than the glass transition temperature of the glass by 2-12%, and preferably by 3-4%, and in that the surface of the mold has a cylindrical shape, and in that the maximum pressure difference is lower than 150 g/cm 2. - setting a mold provided with a surface reproducing the shape to be given to the glass sheet into a cavity of a base element of a muffle; - positioning the glass sheet on the mold with a peripheral edge superimposed to a closure area (14, 15) of the base element surrounding said cavity; - closing a cover of said muffle onto the base element, so that a closure area of the cover maintains the peripheral edge of the glass sheet in contact with the closure area (14, 15) of the base element; - running a thermal cycle including the step of warming up to a maximum temperature greater than the glass transition temperature of the glass and a step of controlled cooling; and - at or after reaching the maximum temperature, generating a pressure difference between the base element and the cover so as to press the glass sheet onto the mold,
A resin composition containing the following,,,, and: a thermoplastic resin which forms a liquid crystal phase at 190°C or lower, measured as indicated in the description, and contains as a main chain structure, 40 to 60% by mol of a unit (i) having a biphenyl group represented by General Formula 5 to 40% by mol of a unit (ii) represented by General Formula -CO-R 3 -CO- (wherein R 3 represents a linear divalent substituent group which has main chain atom number of 4 to 12 and may contain a branch), and 5 to 40% by mol of a unit (iii) represented by General Formula -CO-R 4 -CO- (wherein R 4 represents a linear divalent substituent group which has main chain atom number of 8 to 26 and may contain a branch, in which the main chain atom number is different from that of R 3) ( to total 100% by mol), a curable resin, a curing agent, an elastomer, and an inorganic filler. a thermoplastic resin which forms a liquid crystal phase at 190°C or lower, measured as indicated in the description, and contains as a main chain structure, 40 to 60% by mol of a unit (i) having a biphenyl group represented by General Formula 5 to 40% by mol of a unit (ii) represented by General Formula -CO-R 3 -CO- (wherein R 3 represents a linear divalent substituent group which has main chain atom number of 4 to 12 and may contain a branch), and 5 to 40% by mol of a unit (iii) represented by General Formula -CO-R 4 -CO- (wherein R 4 represents a linear divalent substituent group which has main chain atom number of 8 to 26 and may contain a branch, in which the main chain atom number is different from that of R 3) ( to total 100% by mol), 40 to 60% by mol of a unit (i) having a biphenyl group represented by General Formula 5 to 40% by mol of a unit (ii) represented by General Formula -CO-R 3 -CO- (wherein R 3 represents a linear divalent substituent group which has main chain atom number of 4 to 12 and may contain a branch), and 5 to 40% by mol of a unit (iii) represented by General Formula -CO-R 4 -CO- (wherein R 4 represents a linear divalent substituent group which has main chain atom number of 8 to 26 and may contain a branch, in which the main chain atom number is different from that of R 3) ( to total 100% by mol), a curable resin, a curing agent, an elastomer, and an inorganic filler.
An audio enhancement system for compensating for ambient noise in a listening environment, comprising audio means (101, 102, 103, 201, 202, 203) for producing an electrical sound signal in the time domain (x[k]) and generating a sound output from said electrical sound signal (x[k]); said audio means (101, 102, 103, 201, 202, 203) comprising a time-to-frequency transformation means (115; 215) responsive to said electrical sound signal in the time domain (x[k]) for generating an electrical sound signal in the frequency domain (X[ω]; X [k]); said audio means (101, 102, 103, 201, 202, 203) further comprising frequency-to-time transformation means (117; 217) responsive to said electrical sound signal in the frequency domain (X[ω]; X[k]) for generating a re-transformed electrical sound signal in the time domain (y[k]; Out[k]) for generating said sound output; sensor means (104; 204) for obtaining a total sound signal representative of the total sound level in said environment, wherein said total sound level comprises both said sound output from said audio means and the ambient noise within said environment; extraction means (106; 206) responsive to said total sound signal and to said electrical sound signal for extracting an ambient noise signal representative of the ambient noise in said environment from said total sound signal; and control means responsive to said ambient noise signal and said electrical sound signal in the frequency domain for equalizing, according to the spectral distribution of the ambient noise signal, and adjusting in the frequency domain the sound output of said audio means (101, 102, 103, 201, 202, 203) to compensate for said ambient noise level, characterized in that said equalizing is further performed according to the difference of the masking thresholds of said ambient noise signal and said electrical sound signal.
A specimen collection assembly comprising: a cannula, defining a lumen therein; a hub at least partially supporting the cannula; a spine member engaged with a portion of the hub; characterized by a flow control member defining a regulation channel in fluid communication with the lumen of the cannula and engaging with the spine member so that the flow control member is rotatable relative to the spine member, wherein the flow control member is configured to adjustably alter an effective flow distance between the lumen of the cannula and an interior of an evacuated collection container. a cannula, defining a lumen therein; a hub at least partially supporting the cannula; a spine member engaged with a portion of the hub; characterized by a flow control member defining a regulation channel in fluid communication with the lumen of the cannula and engaging with the spine member so that the flow control member is rotatable relative to the spine member, wherein the flow control member is configured to adjustably alter an effective flow distance between the lumen of the cannula and an interior of an evacuated collection container.
A semiconductor light-emitting element comprising: a first semiconductor layer of a first conductivity type; a first light-emitting layer formed on the first semiconductor layer; a second light-emitting layer formed on the first light-emitting layer; and a second semiconductor layer that is formed on the second light-emitting layer and is of a conductivity type opposite to the conductivity type of the first semiconductor layer, wherein the first light-emitting layer has: a base layer that has a composition being subject to tensile stress from the first semiconductor layer and has a plurality of base segments which are partitioned by grooves into a random net shape and each of which has a flat portion on the upper surface of the base layer, the grooves being formed on the upper surface; and a first quantum well structure layer composed of at least one quantum well layer and at least one barrier layer and formed on the base layer, the first quantum well structure layer retaining segment shapes of the plurality of base segments, and the second light-emitting layer has a second quantum well structure layer composed of a plurality of barrier layers that have different compositions from that of the at least one barrier layer of the first quantum well structure layer, and at least one quantum well layer, and the second light-emitting layer has a groove, which retains the segment shape, in a surface of an end barrier layer located closest to the first light-emitting layer among the plurality of barrier layers. a first semiconductor layer of a first conductivity type; a first light-emitting layer formed on the first semiconductor layer; a second light-emitting layer formed on the first light-emitting layer; and a second semiconductor layer that is formed on the second light-emitting layer and is of a conductivity type opposite to the conductivity type of the first semiconductor layer, wherein the first light-emitting layer has: a base layer that has a composition being subject to tensile stress from the first semiconductor layer and has a plurality of base segments which are partitioned by grooves into a random net shape and each of which has a flat portion on the upper surface of the base layer, the grooves being formed on the upper surface; and a first quantum well structure layer composed of at least one quantum well layer and at least one barrier layer and formed on the base layer, the first quantum well structure layer retaining segment shapes of the plurality of base segments, and the second light-emitting layer has a second quantum well structure layer composed of a plurality of barrier layers that have different compositions from that of the at least one barrier layer of the first quantum well structure layer, and at least one quantum well layer, and the second light-emitting layer has a groove, which retains the segment shape, in a surface of an end barrier layer located closest to the first light-emitting layer among the plurality of barrier layers.
An installation for providing a product in sterilised and/or pasteurised form, comprising at least one liquid component and at least one fibrous and/or solid component, with at least one outlet for providing the liquid component as a first component and with at least one second outlet for providing a second component, which contains the fibrous and/or solid component in a mixture with a liquid component, characterised in that the transporting of the second component inside the installation and from the at least one second outlet to a downstream machine takes place without pumping, exclusively by the pressure of a sterile gaseous and/or vaporous pressure medium.
A silicone contact lens, wherein a radial cross section of the contact lens on its inner face has a rim region between a point of inflection and the outer edge in which the cross sectional contour is convex, characterized by a minimum radius of the convex cross sectional contour of more than 0.5 mm and a surface coating of a hydrophilic material.
An organoselenium compound having the structure: (a) or a derivative thereof or (b) or a derivative thereof. (a) or a derivative thereof or (b) or a derivative thereof.
A method for securing an access to a cloud-based application, comprising: receiving an authentication token, wherein the authentication token includes an identity of a user of a client device requesting an access to the cloud-based application; checking if an agent is installed in the client device; and causing at least one of: installation of an agent in the client device and execution of the agent in the client device, when the client device does not include an agent; receiving, from the agent executed in the client device, a client certificate; retrieving, from a compliance server, a device posture of the client device, wherein the device posture is retrieved respective of the received client certificate; identifying an access policy for the client device to access the cloud-based application, wherein the access policy is identified based at least on the retrieved device posture; and determining whether to grant an access to the cloud-based application based in part on the compliance of the client device with the identified access policy. receiving an authentication token, wherein the authentication token includes an identity of a user of a client device requesting an access to the cloud-based application; checking if an agent is installed in the client device; and causing at least one of: installation of an agent in the client device and execution of the agent in the client device, when the client device does not include an agent; receiving, from the agent executed in the client device, a client certificate; retrieving, from a compliance server, a device posture of the client device, wherein the device posture is retrieved respective of the received client certificate; identifying an access policy for the client device to access the cloud-based application, wherein the access policy is identified based at least on the retrieved device posture; and determining whether to grant an access to the cloud-based application based in part on the compliance of the client device with the identified access policy.