mhurhangee/ep-ind-claims huggingface dataset:
An organic photosensitive optoelectronic device comprising: two electrodes comprising an anode and a cathode in superposed relation; at least one donor material and at least one acceptor material, wherein the donor material and the acceptor material form a photo-active region between the two electrodes; and characterized in a compound blocking layer located between the acceptor material and the cathode, wherein the compound blocking layer comprises at least one electron conducting material and wide-gap electron conducting exciton blocking layer and both layers being directly adjacent to each other; wherein the at least one electron conducting material comprises 3,4,9,10 perylenetetracarboxylic bisbenzimidazole (PTCBI), and the at least one wide-gap electron conducting exciton blocking layer comprises 1,4,5,8-napthalene-tetracarboxylic-dianhydride (NTCDA). two electrodes comprising an anode and a cathode in superposed relation; at least one donor material and at least one acceptor material, wherein the donor material and the acceptor material form a photo-active region between the two electrodes; and characterized in a compound blocking layer located between the acceptor material and the cathode, wherein the compound blocking layer comprises at least one electron conducting material and wide-gap electron conducting exciton blocking layer and both layers being directly adjacent to each other;
A video data reproduction system comprising: a source of first and second video data (102a, 102b) derived from a same video data; an output node; a providing unit configured to provide sequentially the first and the second video data (102a, 102b) to said output node, and coupled between said source and said output node; and a switching unit configured to switch data between the first and the second video data in response to a control signal, and coupled to said providing unit, wherein the first video data includes intra frames and non-intra frames (P, B), the intra frames being decoded independently and the non-intra frames (P, B) being decoded by referencing preceding and/or subsequent frames and the second video data includes at least the intra frames in the first video data and dummy data whose data amount is identical to the data in frames not included in the second video such that the relative addresses of the intra frames are the same for corresponding intra frames in the first and second video data, and said switching unit further specifies next data to be read-out next to the data being currently read-out in response to the control signal, and sets switching positions to an intra frame in the current data and another intra frame in the next data which is identical to the intra frame in the current data. a source of first and second video data (102a, 102b) derived from a same video data; an output node; a providing unit configured to provide sequentially the first and the second video data (102a, 102b) to said output node, and coupled between said source and said output node; and a switching unit configured to switch data between the first and the second video data in response to a control signal, and coupled to said providing unit, wherein the first video data includes intra frames and non-intra frames (P, B), the intra frames being decoded independently and the non-intra frames (P, B) being decoded by referencing preceding and/or subsequent frames and the second video data includes at least the intra frames in the first video data and dummy data whose data amount is identical to the data in frames not included in the second video such that the relative addresses of the intra frames are the same for corresponding intra frames in the first and second video data, and said switching unit further specifies next data to be read-out next to the data being currently read-out in response to the control signal, and sets switching positions to an intra frame in the current data and another intra frame in the next data which is identical to the intra frame in the current data.
An adherent troche composition for use in a method of treating mucositis by topical application on moist epithelial tissues, comprising at least 100 micrograms of cobalamin, said quantity being effective to reduce or prevent mucositis when applied on affected tissues.
Thermal cycling system, comprising: at least one heating device (10a, 10b) having a transparent substrate (11a, 11b) and a heating element (12a, 12b), said heating element (12a, 12b) being in direct contact with the transparent substrate (11a, 11b); and a cartridge accommodating a chamber, said chamber including a top and a bottom face and being adapted to receive a sample and placed adjacent the at least one heating device (10a, 10b), wherein at least one of said top or bottom face comprises a transparent elastic foil, the thermal cycling system charaterised in being arranged such that at least during operation, the transparent elastic foil is placed in contact and aligned with the transparent substrate (11a, 11b) of the at least one heating device (10a, 10b), said foil adapted to blow up in the direction of the heating device upon thermal heating the chamber. at least one heating device (10a, 10b) having a transparent substrate (11a, 11b) and a heating element (12a, 12b), said heating element (12a, 12b) being in direct contact with the transparent substrate (11a, 11b); and a cartridge accommodating a chamber, said chamber including a top and a bottom face and being adapted to receive a sample and placed adjacent the at least one heating device (10a, 10b), wherein at least one of said top or bottom face comprises a transparent elastic foil, the thermal cycling system charaterised in being arranged such that at least during operation, the transparent elastic foil is placed in contact and aligned with the transparent substrate (11a, 11b) of the at least one heating device (10a, 10b), said foil adapted to blow up in the direction of the heating device upon thermal heating the chamber.
A humanized antibody or antigen binding fragment thereof, comprising: a) the light chain CDR sequences GASENIYGALN (SEQ ID NO: 1), GASNLAD (SEQ ID NO: 2) and QNVLSSPYT (SEQ ID NO: 3), and the heavy chain CDR sequences GYTFTDYAMH (SEQ ID NO: 7), LISTYSGDTKYNQNFKG (SEQ ID NO: 8) and GDYSGSRYWFAY (SEQ ID NO: 11); b) the light chain CDR sequences QASENIYGALN (SEQ ID NO: 4), GASNLAT (SEQ ID NO: 5) and QNVLSSPYT (SEQ ID NO: 3), and the heavy chain CDR sequences GYTFTDYAMH (SEQ ID NO: 7), LISTYSGDTKYSQKFQG and GDYSGSRYWFAY (SEQ ID NO: 11); c) the light chain CDR sequences QASENIYGALN (SEQ ID NO: 4), GASNLAT (SEQ ID NO: 5) and QQVLSSPYT (SEQ ID NO: 6), and the heavy chain CDR sequences GYTFTDYAMH (SEQ ID NO: 7), LISTYSGDTKYNQKFQG and GDYSGSRYWFAY (SEQ ID NO: 11); or d) the light chain CDR sequences QASENIYGALN (SEQ ID NO: 4), GASNLAT (SEQ ID NO: 5) and QQVLSSPYT (SEQ ID NO: 6), and the heavy chain CDR sequences GYTFTDYAMH (SEQ ID NO: 7), LISTYSGDTKYNQNFQG (SEQ ID NO: 10) and GDYSGSRYWFAY (SEQ ID NO: 11), wherein said antibody or antigen binding fragment thereof specifically binds to a glycoprotein antigen expressed on the cell surface of colon and pancreatic cancer tissues. a) the light chain CDR sequences GASENIYGALN (SEQ ID NO: 1), GASNLAD (SEQ ID NO: 2) and QNVLSSPYT (SEQ ID NO: 3), and the heavy chain CDR sequences GYTFTDYAMH (SEQ ID NO: 7), LISTYSGDTKYNQNFKG (SEQ ID NO: 8) and GDYSGSRYWFAY (SEQ ID NO: 11); b) the light chain CDR sequences QASENIYGALN (SEQ ID NO: 4), GASNLAT (SEQ ID NO: 5) and QNVLSSPYT (SEQ ID NO: 3), and the heavy chain CDR sequences GYTFTDYAMH (SEQ ID NO: 7), LISTYSGDTKYSQKFQG and GDYSGSRYWFAY (SEQ ID NO: 11); c) the light chain CDR sequences QASENIYGALN (SEQ ID NO: 4), GASNLAT (SEQ ID NO: 5) and QQVLSSPYT (SEQ ID NO: 6), and the heavy chain CDR sequences GYTFTDYAMH (SEQ ID NO: 7), LISTYSGDTKYNQKFQG and GDYSGSRYWFAY (SEQ ID NO: 11); or d) the light chain CDR sequences QASENIYGALN (SEQ ID NO: 4), GASNLAT (SEQ ID NO: 5) and QQVLSSPYT (SEQ ID NO: 6), and the heavy chain CDR sequences GYTFTDYAMH (SEQ ID NO: 7), LISTYSGDTKYNQNFQG (SEQ ID NO: 10) and GDYSGSRYWFAY (SEQ ID NO: 11),
A method for facilitating exo-atmospheric Ground-to-Ground, GTG, missile's interception trial, comprising: (a) launching a carrier missile accommodating at least one inflatable dummy target, having a flexible external skin and an internal rigid structure for simulating a warhead, said carrier missile being configured to release said at least one dummy target therefrom and to perform kill assessment of said rigid structure during the exo-atmospheric GTG missile interception trial,said dummy target or portion thereof being configured to be inflated and to manifest characteristics that resemble GTG missile characteristics, said dummy target being configured to re-route its flight trajectory during its release from the carrier missile, for at least (i) facilitating sensing of interception, by said carrier missile, during the END GAME, (ii) assuring that the carrier missile is substantially out of the field of view of an interceptor during the END GAME, or assuring that the carrier missile is substantially in the field of view of the interceptor during the END GAME at a pre-defined location relative to the dummy target; (b) launching the interceptor for exo-atmospheric interception of the dummy target; (c) receiving communication of data sensed by the carrier missile during the interception process. (a) launching a carrier missile accommodating at least one inflatable dummy target, having a flexible external skin and an internal rigid structure for simulating a warhead, said carrier missile being configured to release said at least one dummy target therefrom and to perform kill assessment of said rigid structure during the exo-atmospheric GTG missile interception trial,said dummy target or portion thereof being configured to be inflated and to manifest characteristics that resemble GTG missile characteristics, said dummy target being configured to re-route its flight trajectory during its release from the carrier missile, for at least (i) facilitating sensing of interception, by said carrier missile, during the END GAME, (ii) assuring that the carrier missile is substantially out of the field of view of an interceptor during the END GAME, or assuring that the carrier missile is substantially in the field of view of the interceptor during the END GAME at a pre-defined location relative to the dummy target; (b) launching the interceptor for exo-atmospheric interception of the dummy target; (c) receiving communication of data sensed by the carrier missile during the interception process.
An expansion valve (100, 200) for a vapor compression system, comprising: a needle; a spring coupled to the needle; a screw coupled to the spring; and a motor configured to drive the screw to cause the spring to provide pressure on the needle, characterised in that the pressure is provided in a downward direction at a same time as refrigerant is providing pressure on the needle and causing the needle to move in an upward direction to regulate a flow rate of the refrigerant through the expansion valve; wherein the motor is configured to drive the screw to cause the spring to provide a particular amount of pressure on the needle such that the flow rate of the refrigerant is a particular flow rate; wherein the particular flow rate is a flow rate needed to superheat the refrigerant by a particular amount. a needle; a spring coupled to the needle; a screw coupled to the spring; and a motor configured to drive the screw to cause the spring to provide pressure on the needle, characterised in that the pressure is provided in a downward direction at a same time as refrigerant is providing pressure on the needle and causing the needle to move in an upward direction to regulate a flow rate of the refrigerant through the expansion valve; wherein the motor is configured to drive the screw to cause the spring to provide a particular amount of pressure on the needle such that the flow rate of the refrigerant is a particular flow rate; wherein the particular flow rate is a flow rate needed to superheat the refrigerant by a particular amount.
A pipe assembly comprising: a composite pipe comprising a composite material formed of at least a matrix material and a plurality of reinforcing elements embedded within the matrix material; and a metallic pipe stub secured to an end region of the composite pipe and configured to support a connector to permit the pipe assembly to be secured to separate infrastructure, the pipe assembly comprising a connection assembly for securing the metallic pipe stub to the composite pipe, wherein the composite pipe defines a load profile configured to be engaged by the connection assembly to permit a connection force to be applied therebetween, wherein the connection assembly defines a complementary load profile configured to interengage with a respective load profile on the composite pipe, characterised in that the composite pipe defines a wedge-shaped load profile, said wedge shaped load profile formed from a composite material, in that the composite pipe defines an extended region of increased wall thickness in the end region thereof and in that the wedge-shaped load profile is integrally formed with the composite pipe. a composite pipe comprising a composite material formed of at least a matrix material and a plurality of reinforcing elements embedded within the matrix material; and a metallic pipe stub secured to an end region of the composite pipe and configured to support a connector to permit the pipe assembly to be secured to separate infrastructure, the pipe assembly comprising a connection assembly for securing the metallic pipe stub to the composite pipe, wherein the composite pipe defines a load profile configured to be engaged by the connection assembly to permit a connection force to be applied therebetween, wherein the connection assembly defines a complementary load profile configured to interengage with a respective load profile on the composite pipe, characterised in that the composite pipe defines a wedge-shaped load profile, said wedge shaped load profile formed from a composite material, in that the composite pipe defines an extended region of increased wall thickness in the end region thereof and in that the wedge-shaped load profile is integrally formed with the composite pipe.
Folding frame for a child's pushchair, comprising two side frame sections (1, 2) each having an upper member (101, 102) and a lower member (201, 202) mounted so as to articulate relative to each other between an unfolded position and a folded position, said lower members (201, 202) being linked, via a rear end, to a rear wheel or to a set of rear wheels (3, 6), each of said upper members (101, 102) being coupled, via a rear end, to a pusher (7, 8) and, via a front end, to one of said lower members, said frame further comprising a central articulation point linked via four link rods (20, 21, 22, 23) to each of said members, respectively, so as to bring them together or separate them during folding or unfolding, respectively, comprising a guide support linking said central articulation point to a cross-member forming a strut linking the front ends of said lower members (201, 202) and/or of said upper members (101, 102) of said side frame sections, said central articulation point having a position that is fixed relative to said guide support, characterised in that: said cross-member forming a strut comprises two left-hand and right-hand cross-member sections (25A, 25B), each of said cross-member sections having a first end pivotally coupled to a front end of said guide support and a second end pivotally coupled to the front end of one of said lower members (201, 202) and/or to one of said upper members (101, 102), said cross-member sections being capable of folding towards the rear of said pushchair when said frame is folded. said cross-member forming a strut comprises two left-hand and right-hand cross-member sections (25A, 25B), each of said cross-member sections having a first end pivotally coupled to a front end of said guide support and a second end pivotally coupled to the front end of one of said lower members (201, 202) and/or to one of said upper members (101, 102), said cross-member sections being capable of folding towards the rear of said pushchair when said frame is folded.
An information processing device comprising a control unit configured to sense a state that causes decrease of a display frame rate of a virtual object presented to a user, the display frame rate being the number of frames processed per unit time in virtual object display, wherein the display frame rate indicates a sensed state of processing, and dynamically change a display detail level of the virtual object using a result of the sensing, wherein the control unit is characterized by being configured to dynamically change the display detail level of the virtual object based on the sensed state of processing at the control unit, and based on a recognition frame rate at which the state of the user or surroundings of the user is recognized, the recognition frame rate being the number of times in which the state of the user or surroundings of the user is detected per unit time during a recognition process, by using a sensing result sensed by a sensor unit. sense a state that causes decrease of a display frame rate of a virtual object presented to a user, the display frame rate being the number of frames processed per unit time in virtual object display, wherein the display frame rate indicates a sensed state of processing, and dynamically change a display detail level of the virtual object using a result of the sensing, wherein the control unit is characterized by being configured to dynamically change the display detail level of the virtual object based on the sensed state of processing at the control unit, and based on a recognition frame rate at which the state of the user or surroundings of the user is recognized, the recognition frame rate being the number of times in which the state of the user or surroundings of the user is detected per unit time during a recognition process, by using a sensing result sensed by a sensor unit.
A semiconductor structure comprising: a semiconductor layer; an adhesion layer disposed above the semiconductor layer; an anodic metal layer disposed above the adhesion layer and having an upper surface and sidewalls; and a cathodic metal layer disposed overlying and on the anodic metal layer and having sidewalls; wherein an oxidation potential of the anodic metal layer is greater than an oxidation potential of the cathodic metal layer; wherein: the cathodic metal layer comprises copper, Cu; the upper surface of the anodic metal layer extending away from a sidewall of the cathodic metal layer to a sidewall of the anodic metal layer so that the upper surface of the anodic metal layer is exposed to a same ambient environment as the sidewall of the cathodic metal layer. a semiconductor layer; an adhesion layer disposed above the semiconductor layer; an anodic metal layer disposed above the adhesion layer and having an upper surface and sidewalls; and a cathodic metal layer disposed overlying and on the anodic metal layer and having sidewalls; wherein an oxidation potential of the anodic metal layer is greater than an oxidation potential of the cathodic metal layer; wherein: the cathodic metal layer comprises copper, Cu; the upper surface of the anodic metal layer extending away from a sidewall of the cathodic metal layer to a sidewall of the anodic metal layer so that the upper surface of the anodic metal layer is exposed to a same ambient environment as the sidewall of the cathodic metal layer. the cathodic metal layer comprises copper, Cu; the upper surface of the anodic metal layer extending away from a sidewall of the cathodic metal layer to a sidewall of the anodic metal layer so that the upper surface of the anodic metal layer is exposed to a same ambient environment as the sidewall of the cathodic metal layer.
A method for removing the oxygen dissolved in and maintaining in a controlled atmosphere a plant product, such as grapes or the like, introduced into mechanical means for harvesting, transporting and storage, said means comprising a collection tank into which said plant product is introduced after harvesting, said product being present in said tank in a solid state and in a liquid state, the oxygen being removed and the atmosphere being controlled by applying CO 2 in the gaseous state to said product and replacing at least partly the oxygen present in said tank with said CO 2 in the gaseous state, characterized in that provision is made for the use of said CO 2 in an initial solid state, the subsequent sublimation thereof and the interaction of CO 2 in the gaseous state so obtained with said product inside the tank, so as to remove the oxygen from it and create a non-oxidative atmosphere, wherein: - said CO 2 in solid state is contained in a container or sublimer separated from the collection tank into which the harvested product is introduced, - said solid state of CO 2 in said sublimer absorbs heat from a gaseous stream flowing in the sublimer and heated outside it, said CO 2 in the gaseous state being then delivered to the collection tank, - said gaseous stream being initially formed by a fluid, such as air or the like and being progressively enriched with CO 2 which is in the gaseous state after its sublimation from the solid state. - said CO 2 in solid state is contained in a container or sublimer separated from the collection tank into which the harvested product is introduced, - said solid state of CO 2 in said sublimer absorbs heat from a gaseous stream flowing in the sublimer and heated outside it, said CO 2 in the gaseous state being then delivered to the collection tank, - said gaseous stream being initially formed by a fluid, such as air or the like and being progressively enriched with CO 2 which is in the gaseous state after its sublimation from the solid state.