mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a film of photonic crystal material, comprising:- providing a material comprising particles capable of forming a photonic crystal structure; performing a first process upon the material which causes deformation of the material so as to form a film in which incident light received by the material is selectively reflected or transmitted to generate a first optical effect in the film, and wherein said first process includes an extrusion process in which the material is forced though an extrusion die; and performing a second process upon substantially all of the film which applies a shear stress to the film, thereby causing a local rearrangement of the particles within the film so as to enhance its photonic crystallinity and thereby generate a second optical effect in the film, different from the first optical effect, in response to incident light, the method further comprising applying a cover film to one or each of the opposing surfaces of the film before the performance of the second process and wherein the shear stress of the second process is applied to at least one of the said cover films. providing a material comprising particles capable of forming a photonic crystal structure; performing a first process upon the material which causes deformation of the material so as to form a film in which incident light received by the material is selectively reflected or transmitted to generate a first optical effect in the film, and wherein said first process includes an extrusion process in which the material is forced though an extrusion die; and performing a second process upon substantially all of the film which applies a shear stress to the film, thereby causing a local rearrangement of the particles within the film so as to enhance its photonic crystallinity and thereby generate a second optical effect in the film, different from the first optical effect, in response to incident light, the method further comprising applying a cover film to one or each of the opposing surfaces of the film before the performance of the second process and wherein the shear stress of the second process is applied to at least one of the said cover films.
A fibrous element comprising a blend comprising a fibrous element-forming polymer and a fast wetting surfactant, wherein said fast wetting surfactant comprises a sulfosuccinate surfactant that has the following structure V wherein R is independently selected from substituted or unsubstituted, linear or branched C 4 -C 7 aliphatic chains and mixtures thereof, and wherein said fast wetting surfactant exhibits a Critical Micellar Concentration in distilled water of greater than 0.15% by weight as measured according to the method described in Paul C. Hiemenz and Raj Rajagopalan, Principles of Colloid and Surface Chemistry 3rd Edition, p253-255.
The use of a combination of acylhydrazone of general formula, where R 1 represents a CF 3 or a C 1-28 alkyl, C 2-28 alkenyl, C 2-22 alkinyl, C 3-12 cycloalkyl, C 3-12 cycloalkenyl, phenyl, naphthyl, C 7-9 aralkyl, C 3-20 heteroalkyl or C 3-12 cycloheteroalkyl group, R 2 and R 3 represent, independently of one another, hydrogen or an optionally substituted C 1-28 alkyl, C 2-28 alkenyl, C 2-22 alkinyl, C 3-12 cycloalkyl, C 3-12 cycloalkenyl, C 7-9 aralkyl, C 3-28 heteroalkyl, C 3-12 cycloheteroalkyl, C 5-16 heteroaralkyl, phenyl, naphthyl or heteroaryl group, or R 2 and R 3, together with the carbon atom which binds them, represent an optionally substituted 5-, 6-, 7-, 8- or 9-membered ring which can optionally contain heteroatoms, and R 4 represents hydrogen or a C 1-28 alkyl, C 2-28 alkenyl, C 2-22 alkinyl, C 3-12 cycloalkyl, C 3-12 cycloalkenyl, C 7-9 aralkyl, C 3-20 heteroalkyl, C 3-12 cycloheteroalkyl, C 5-16 heteroaralkyl group or an optionally substituted phenyl or naphthyl or heteroaryl group, and reducing agent for improving the dirt removal performance of liquid enzyme- and surfactant-containing washing or cleaning agents which are free from oxidative bleaching agents.
A rotary stop for a suspension strut intended to be mounted on the superstructure of a vehicle, with the suspension strut comprising a telescopic damper and a coil spring, with the rotary stop including a bearing inserted between a stationary cover and a rotary lower mounting and defining an axis of rotation of the rotary stop, with the lower mounting having a bearing wall (28.1) resting against the bearing and intended to be inserted axially between an upper turn (18.1) of the coil spring and the bearing, and a skirt (28.2) for guiding the coil spring, intended to be positioned radially inside the upper turn (18.1) of the coil spring, with the cover having a bearing wall (26.1) resting against the bearing and intended to be inserted between the bearing and the superstructure of the vehicle, and an inner skirt (26.3) extending radially inside the bearing and the guiding skirt (28.2), characterized in that the inner skirt (26.3) has a lower end (26.4) projecting beyond the guiding skirt (28.2) and provided with a resilient anchorage (26.5) projecting radially outwardly and radially overlapping with a lower end (28.3) of the guiding skirt (28.2).
An inlet device configured to be mounted on a communication cable, the inlet device being for the insertion of an optical fiber cable into a telecommunications enclosure, the inlet device comprising: a housing having a first end and a second end, wherein the housing includes a compressible portion at the second end of the housing; an optical device holder attachable to the first end of the housing, the optical device holder comprising a base and a lid wherein the base has a cable gripping portion located at a first end of the base, a device holding portion located at a second end of the base, and a splicing portion located between the cable gripping portion and the device holding portion; and a compression member attachable over the compressible portion of the housing. a housing having a first end and a second end, wherein the housing includes a compressible portion at the second end of the housing; an optical device holder attachable to the first end of the housing, the optical device holder comprising a base and a lid wherein the base has a cable gripping portion located at a first end of the base, a device holding portion located at a second end of the base, and a splicing portion located between the cable gripping portion and the device holding portion; and a compression member attachable over the compressible portion of the housing.
A method of coextruding polymers into an edge laminated film, comprising: supplying a first polymer melt stream including polyethylene and poly (styrene/ethylene-butylene/styrene) at a first temperature to a first inlet of a coextruder body; supplying a second polymer melt stream at a second temperature different from the first temperature to a second inlet (112, 114) of the coextruder body the second melt stream including polypropylene, polyethylene and poly(styrene/ethylenebutylene/styrene); flowing the first and second melt streams through first and second flow passageways passing through the body to a converged output of the streams, wherein the first flow passageway includes a transverse diverging chamber laterally oriented relative to the second flow passageway at the converged output; and outputting the converged output from the body to form the edge laminated film continuous across a full width of the film, wherein at the converged output the first and second melt streams have a temperature differential relative to one another, wherein the temperature differential is at least 25 °C and is selected such that the viscosities of the first and second melt streams are within 10 percent of one another where outputting the converged output from the body occurs. supplying a first polymer melt stream including polyethylene and poly (styrene/ethylene-butylene/styrene) at a first temperature to a first inlet of a coextruder body; supplying a second polymer melt stream at a second temperature different from the first temperature to a second inlet (112, 114) of the coextruder body the second melt stream including polypropylene, polyethylene and poly(styrene/ethylenebutylene/styrene); flowing the first and second melt streams through first and second flow passageways passing through the body to a converged output of the streams, wherein the first flow passageway includes a transverse diverging chamber laterally oriented relative to the second flow passageway at the converged output; and outputting the converged output from the body to form the edge laminated film continuous across a full width of the film, wherein at the converged output the first and second melt streams have a temperature differential relative to one another, wherein the temperature differential is at least 25 °C and is selected such that the viscosities of the first and second melt streams are within 10 percent of one another where outputting the converged output from the body occurs.
A method for managing monitoring of Physical downlink Control Channel, PDCCH, in a wireless communication system, the method comprising: enabling, by a User Equipment, UE,, a Wake Up Signal, WUS, operation mode, on receiving configurations of a discontinuous reception, DRX, cycle and at least one power saving signal from a Base Station, BS,, wherein the at least one power saving signal include a WUS; receiving, by the UE, the WUS from the BS before an On-duration of the DRX cycle in the enabled WUS operation mode; monitoring, by the UE, the PDCCH for downlink control information, if the received WUS indicates presence of the PDCCH; and performing, by the UE, a transition into a sleep state during the ON-duration of the DRX cycle, if the received WUS indicates absence of the PDCCH; characterized by: receiving, by the UE, measurement resources, and a number of samples and duration for the measurement resources from the BS in a time gap between the WUS and the ON-duration of the DRX cycle, wherein the number of samples and the duration for the measurement resources are specified by the BS based on mobility management of the UE and signal strength; and performing, by the UE, measurement operations on channel related factors using the received measurement resources, and the number of samples and the duration for the measurement resources. enabling, by a User Equipment, UE,, a Wake Up Signal, WUS, operation mode, on receiving configurations of a discontinuous reception, DRX, cycle and at least one power saving signal from a Base Station, BS,, wherein the at least one power saving signal include a WUS; receiving, by the UE, the WUS from the BS before an On-duration of the DRX cycle in the enabled WUS operation mode; monitoring, by the UE, the PDCCH for downlink control information, if the received WUS indicates presence of the PDCCH; and performing, by the UE, a transition into a sleep state during the ON-duration of the DRX cycle, if the received WUS indicates absence of the PDCCH; characterized by: receiving, by the UE, measurement resources, and a number of samples and duration for the measurement resources from the BS in a time gap between the WUS and the ON-duration of the DRX cycle, wherein the number of samples and the duration for the measurement resources are specified by the BS based on mobility management of the UE and signal strength; and performing, by the UE, measurement operations on channel related factors using the received measurement resources, and the number of samples and the duration for the measurement resources. receiving, by the UE, measurement resources, and a number of samples and duration for the measurement resources from the BS in a time gap between the WUS and the ON-duration of the DRX cycle, wherein the number of samples and the duration for the measurement resources are specified by the BS based on mobility management of the UE and signal strength; and performing, by the UE, measurement operations on channel related factors using the received measurement resources, and the number of samples and the duration for the measurement resources.
A flow chamber comprising: (a) an inner panel having: (i) a lower surface comprising one or more recesses bounded by one or more grooves for forming at least one flow channel therein, wherein each recess has both a flow channel inlet/outlet and a port at each end thereof adapted for liquid communication with the at least one flow channel, wherein each flow channel inlet/outlet is adapted to receive a septum and each port is adapted to releasably receive a plug to provide a liquid-proof seal to the at least one flow channel, optionally wherein the ports are adapted to be resealable; and (ii) an upper surface comprising one or more septum holders each comprising a septum, wherein each septum holder is aligned with a flow channel inlet/outlet; and (b) an outer frame adapted to be assembled with the inner panel to form the at least one flow channel there between and thereby to define an outer portion of the at least one flow channel and a perimeter of the flow chamber, wherein the outer frame comprises one or more welding ribs on its inner horizontal surface and one or more pairs of fluidics holes on one or more opposing vertical surfaces, and wherein, when the outer frame is assembled with the inner panel, the one or more welding ribs fit into the one or more grooves to form the at least one flow channel and the one or more septum holders align each septum with a fluidics hole. (a) an inner panel having: (i) a lower surface comprising one or more recesses bounded by one or more grooves for forming at least one flow channel therein, wherein each recess has both a flow channel inlet/outlet and a port at each end thereof adapted for liquid communication with the at least one flow channel, wherein each flow channel inlet/outlet is adapted to receive a septum and each port is adapted to releasably receive a plug to provide a liquid-proof seal to the at least one flow channel, optionally wherein the ports are adapted to be resealable; and (ii) an upper surface comprising one or more septum holders each comprising a septum, wherein each septum holder is aligned with a flow channel inlet/outlet; and (b) an outer frame adapted to be assembled with the inner panel to form the at least one flow channel there between and thereby to define an outer portion of the at least one flow channel and a perimeter of the flow chamber, wherein the outer frame comprises one or more welding ribs on its inner horizontal surface and one or more pairs of fluidics holes on one or more opposing vertical surfaces, and wherein, when the outer frame is assembled with the inner panel, the one or more welding ribs fit into the one or more grooves to form the at least one flow channel and the one or more septum holders align each septum with a fluidics hole.
A laminated article comprising a molded layer A formed of a multiplicity of expanded beads that are fusion-bonded to each other and that are comprised of a base polymer including a thermoplastic resin, and a molded layer B laminated and bonded to said molded layer A and formed of a multiplicity of expanded beads that are fusion-bonded to each other and that are comprised of a base polymer including a thermoplastic elastomer, said molded layer A having a volume Va and a tensile modulus TMa which is 2 to 100 MPa as measured according to JIS K6767, said molded layer B having a volume Vb and a tensile modulus TMb which is 0.05 MPa or more and less than 2 MPa as measured according to JIS K6767, wherein Va:Vb is 90:10 to 50:50 and TMb/TMa is 0.025 or less and wherein the Volumes Va and Vb are as measured from the outer dimensions of the respective molded layers in accordance with the method disclosed in the specification. said molded layer A having a volume Va and a tensile modulus TMa which is 2 to 100 MPa as measured according to JIS K6767, said molded layer B having a volume Vb and a tensile modulus TMb which is 0.05 MPa or more and less than 2 MPa as measured according to JIS K6767, wherein Va:Vb is 90:10 to 50:50 and TMb/TMa is 0.025 or less and wherein the Volumes Va and Vb are as measured from the outer dimensions of the respective molded layers in accordance with the method disclosed in the specification.
Lever connection (80, 270) for connecting a guide vane (10, 200) to a lever (52, 242) of a guide vane adjustment of a turbomachine for conjoint rotation, the guide vane (10, 200) having a vane shaft (12, 202) that extends along a vertical axis, characterized in that the lever (52, 242) is formed in one piece at a radially outer end (46, 236) of a substantially hollow-cylindrical clamping sleeve (50, 240) that coaxially encloses the vane shaft (12, 202) in portions, and the vane shaft (12, 202) and the clamping sleeve (50, 240) are coupled via a longitudinal form-fitting connection or an end-face form-fitting connection and the vane shaft (12, 202) can be clamped by the clamping sleeve (50, 240) along the vertical axis by means of a fastening element (84, 274), in particular a threaded nut (82, 272).
A genetically modified infectious measles virus derived from a live-attenuated measles virus strain, in which the gene encoding the viral accessory C protein has been knocked out (MV-deltaC) for use in the treatment of an aggressive malignant tumour or of an aggressive cancer by activating plasmacytoid dendritic cells (pDCs), when administered to an individual diagnosed with such a malignant tumour or a cancer condition.
An inductive position sensor for detecting a movement of a conductive target, comprising: at least a first transmitter coil and a second transmitter coil, wherein the first transmitter coil and the second transmitter coil have the same shape and are phase-shifted to each other, at least one oscillator for generating a first transmitter signal and a second transmitter signal, wherein the first transmitter signal and the second transmitter signal have the same shape and are phase-shifted to each other and are applied to the first transmitter coil and second transmitter coil respectively, at least one receiver coil, wherein the first transmitter coil, the second transmitter coil and the at least one receiver coil are arranged on a substrate, wherein the first transmitter coil and the second transmitter coil are superimposed, wherein the conductive target moves above the first transmitter coil and the second transmitter coil, and and wherein the first transmitter coil and the second transmitter coil generate a rotating electromagnetic transmitter field, due to the phase shift between the first transmitter coil and the second transmitter coil and between the first transmitter signal and the second transmitter signal, characterized in that it further comprises a processing unit for determining a phase-shift between the first transmitter signal or the second transmitter signal and a receiver signal received at the receiver coil, wherein the determined phase-shift corresponds to the position of the conductive target above the first transmitter coil and second transmitter coil. at least a first transmitter coil and a second transmitter coil, wherein the first transmitter coil and the second transmitter coil have the same shape and are phase-shifted to each other, at least one oscillator for generating a first transmitter signal and a second transmitter signal, wherein the first transmitter signal and the second transmitter signal have the same shape and are phase-shifted to each other and are applied to the first transmitter coil and second transmitter coil respectively, at least one receiver coil, wherein the first transmitter coil, the second transmitter coil and the at least one receiver coil are arranged on a substrate, wherein the first transmitter coil and the second transmitter coil are superimposed, wherein the conductive target moves above the first transmitter coil and the second transmitter coil, and and wherein the first transmitter coil and the second transmitter coil generate a rotating electromagnetic transmitter field, due to the phase shift between the first transmitter coil and the second transmitter coil and between the first transmitter signal and the second transmitter signal, characterized in that it further comprises a processing unit for determining a phase-shift between the first transmitter signal or the second transmitter signal and a receiver signal received at the receiver coil, wherein the determined phase-shift corresponds to the position of the conductive target above the first transmitter coil and second transmitter coil.
A lithium ion oxygen battery comprising: a positive electrode containing oxygen as an active material and a lithium source; a negative electrode made of a material capable of occluding or releasing lithium ions; and an electrolyte layer sandwiched between the positive electrode and the negative electrode and capable of conducting the lithium ions, wherein the positive electrode, the negative electrode, and the electrolyte layer are housed in a hermetic case, and the positive electrode comprises an oxygen storage material and a lithium compound, except for a combined metal oxide of lithium and another metal, as the lithium source, characterized in that the oxygen storage material comprises a function to occlude oxygen generated from the lithium compound when charging, a function to adsorb the oxygen on a surface thereof when charging, a function to release the occluded oxygen when discharging, and a function to desorb the adsorbed oxygen when discharging, and the oxygen storage material is any one of a combined metal oxide expressed by YMnO 3, YMnO 3 containing ZrO 2, a compound represented by a general formula Y 1-x Ag x Mn 1-y A y O 3 where A represents Ru or Ti, 1>x>0 and 1>y>0, and a combined metal oxide represented by a general formula Mn 2-(a+b+c) Zr a Ag b Ru c O 3 where 2>a+b+c>0. a positive electrode containing oxygen as an active material and a lithium source; a negative electrode made of a material capable of occluding or releasing lithium ions; and an electrolyte layer sandwiched between the positive electrode and the negative electrode and capable of conducting the lithium ions, wherein the positive electrode, the negative electrode, and the electrolyte layer are housed in a hermetic case, and the positive electrode comprises an oxygen storage material and a lithium compound, except for a combined metal oxide of lithium and another metal, as the lithium source, characterized in that the oxygen storage material comprises a function to occlude oxygen generated from the lithium compound when charging, a function to adsorb the oxygen on a surface thereof when charging, a function to release the occluded oxygen when discharging, and a function to desorb the adsorbed oxygen when discharging, and the oxygen storage material is any one of a combined metal oxide expressed by YMnO 3, YMnO 3 containing ZrO 2, a compound represented by a general formula Y 1-x Ag x Mn 1-y A y O 3 where A represents Ru or Ti, 1>x>0 and 1>y>0, and a combined metal oxide represented by a general formula Mn 2-(a+b+c) Zr a Ag b Ru c O 3 where 2>a+b+c>0.