mhurhangee/ep-ind-claims huggingface dataset:
A light-emitting electrochemical cell, LEC, comprising: - a first electrode; - a second electrode, and - at least one light-emitting active material separating the first and second electrodes, wherein the light-emitting active material comprises a combination of an electrolyte, a first constituent comprising a host compound and a second constituent consisting of one guest compound, wherein when the first constituent comprises more than one host compound a LUMO energy level of the first constituent is the LUMO energy level of the host compound with the lowest LUMO energy level, and wherein when the first constituent comprises more than one host compound a HOMO energy level of the first constituent is the HOMO energy level of the host compound with the highest HOMO energy level, a quotient between a difference in LUMO energy level between the first and second constituent, E trap n, and a difference in HOMO energy level between the second and first constituent, E trap p, is 1/10 to 10; a quotient between an electron mobility and a hole mobility on the first constituent is 1/100 to 100; characterized in that a quotient between a number of ions of the electrolyte and a number of molecules or repeat units of the second constituent is 1/3 to 5, and a LUMO energy level of the electrolyte is higher than the LUMO energy level of the first constituent and a HOMO energy level of the electrolyte is lower than the HOMO energy level of the first constituent, so that the electrolyte is electrochemically inert during LEC operation whereby it is not electrochemically oxidized or reduced. - a first electrode; - a second electrode, and - at least one light-emitting active material separating the first and second electrodes, wherein the light-emitting active material comprises a combination of an electrolyte, a first constituent comprising a host compound and a second constituent consisting of one guest compound, wherein when the first constituent comprises more than one host compound a LUMO energy level of the first constituent is the LUMO energy level of the host compound with the lowest LUMO energy level, and wherein when the first constituent comprises more than one host compound a HOMO energy level of the first constituent is the HOMO energy level of the host compound with the highest HOMO energy level, a quotient between a difference in LUMO energy level between the first and second constituent, E trap n, and a difference in HOMO energy level between the second and first constituent, E trap p, is 1/10 to 10; a quotient between an electron mobility and a hole mobility on the first constituent is 1/100 to 100; characterized in that a quotient between a number of ions of the electrolyte and a number of molecules or repeat units of the second constituent is 1/3 to 5, and a LUMO energy level of the electrolyte is higher than the LUMO energy level of the first constituent and a HOMO energy level of the electrolyte is lower than the HOMO energy level of the first constituent, so that the electrolyte is electrochemically inert during LEC operation whereby it is not electrochemically oxidized or reduced.
A method of prognosing or classifying a subject with AML comprising: (a) determining the expression level of the 17 genes in a test sample from the subject consisting of DNMT3B, ZBTB46, NYNRIN, ARHGAP22, LAPTM4B, MMRN1, DPYSL3, KIAA0125, CDK6, CPXM1, SOCS2, SMIM24, EMP1, NGFRAP1, CD34, AKR1C3, and GPR56; and (b) comparing expression of the 17 genes in the test sample with reference expression levels of the 17 genes from control samples from a cohort of patients; wherein a difference or similarity in the expression of the 17 genes in the test sample and the reference expression levels is used to prognose or classify the subject with AML into a low risk group or a high risk group for worse survival. (a) determining the expression level of the 17 genes in a test sample from the subject consisting of DNMT3B, ZBTB46, NYNRIN, ARHGAP22, LAPTM4B, MMRN1, DPYSL3, KIAA0125, CDK6, CPXM1, SOCS2, SMIM24, EMP1, NGFRAP1, CD34, AKR1C3, and GPR56; and (b) comparing expression of the 17 genes in the test sample with reference expression levels of the 17 genes from control samples from a cohort of patients;
A covalent cellulosome comprising - a binding domain comprising at least one carbohydrate binding module of a cellulosomal scaffolding protein fused to at least one hydrophilic X-module domain of a cellulosomal scaffolding protein; - two or more polypeptides, each comprising at least a catalytic module of a cellulase enzyme of interest, and - one or more spacers interconnecting the two or more polypeptides by a covalent bond; wherein each of said one or more spacers has a length of at least 40 residues. - a binding domain comprising at least one carbohydrate binding module of a cellulosomal scaffolding protein fused to at least one hydrophilic X-module domain of a cellulosomal scaffolding protein; - two or more polypeptides, each comprising at least a catalytic module of a cellulase enzyme of interest, and - one or more spacers interconnecting the two or more polypeptides by a covalent bond;
A service server apparatus connected with a plurality of speech communication terminal devices (241a, 241b) performing speech communication with each other by verbal speeches, and providing a translation service through a translation task to the plurality of speech communication terminal devices (241a, 241b) performing the speech communication, the service server apparatus comprising: an instruction receiving unit configured to receive an instruction for performing the translation task; a recording unit configured to record a verbal speech in a first language of a first speaker during the speech communication between the plurality of speech communication terminal devices (241a, 241b); a speech recognizing unit configured to generate text data based on the verbal speech recorded by the recording unit when the instruction receiving unit receives the instruction; a text translating unit configured to translate the text data generated by the speech recognizing unit into a second language of a second speaker of the plurality of speech communication terminal devices (241a, 241b) and generate translated text data; a speech synthesizing unit configured to convert the translated text data generated by the text translating unit into speech data to be read out by synthesized sounds; and a providing unit; the service server apparatus characterized in that the providing unit is configured to provide task data including the text data generated by the speech recognizing unit, the translated text data generated by the text translating unit, and the speech data generated by speech synthesizing unit to all of the plurality of speech communication terminal devices (241a, 241b) performing the speech communication. an instruction receiving unit configured to receive an instruction for performing the translation task; a recording unit configured to record a verbal speech in a first language of a first speaker during the speech communication between the plurality of speech communication terminal devices (241a, 241b); a speech recognizing unit configured to generate text data based on the verbal speech recorded by the recording unit when the instruction receiving unit receives the instruction; a text translating unit configured to translate the text data generated by the speech recognizing unit into a second language of a second speaker of the plurality of speech communication terminal devices (241a, 241b) and generate translated text data; a speech synthesizing unit configured to convert the translated text data generated by the text translating unit into speech data to be read out by synthesized sounds; and a providing unit; the service server apparatus characterized in that the providing unit is configured to provide task data including the text data generated by the speech recognizing unit, the translated text data generated by the text translating unit, and the speech data generated by speech synthesizing unit to all of the plurality of speech communication terminal devices (241a, 241b) performing the speech communication.
A method comprising: receiving, by a user equipment, a request, from a base station, for a sounding reference signal switching capability of the user equipment, wherein the request comprises a list of possible cells to be used by the user equipment for sounding reference signal transmission; determining, at the user equipment, the sounding reference signal switching capability of the user equipment based on the list of possible cells; and transmitting, from the user equipment to the base station, an indication of the sounding reference signal switching capability of the user equipment. receiving, by a user equipment, a request, from a base station, for a sounding reference signal switching capability of the user equipment, wherein the request comprises a list of possible cells to be used by the user equipment for sounding reference signal transmission; determining, at the user equipment, the sounding reference signal switching capability of the user equipment based on the list of possible cells; and transmitting, from the user equipment to the base station, an indication of the sounding reference signal switching capability of the user equipment.
A thermo-optic lens, comprising: a plurality of parallel heating elements (210 1 - 210 n) having respective lengths and widths and a substantially constant center to center spacing and two conductive elements (220 1, 220 2) for providing a potential across said plurality of heating elements (210 1 - 210 n), characterized in that either the length or the width of said heating elements (210 1 - 210 n) increases or decreases from the outermost heating elements to the innermost heating elements such that in the event that current flows through the heating elements a parabolic temperature distribution is generated within said thermo-optic lens that causes a parabolic distribution of the refractive index in said thermo-optic lens; and wherein the parallel heating elements (210 1, 210 n) are formed at a slight angle with respect to the intended optical beam axis of said thermo-optic lens. a plurality of parallel heating elements (210 1 - 210 n) having respective lengths and widths and a substantially constant center to center spacing and two conductive elements (220 1, 220 2) for providing a potential across said plurality of heating elements (210 1 - 210 n), characterized in that either the length or the width of said heating elements (210 1 - 210 n) increases or decreases from the outermost heating elements to the innermost heating elements such that in the event that current flows through the heating elements a parabolic temperature distribution is generated within said thermo-optic lens that causes a parabolic distribution of the refractive index in said thermo-optic lens; and wherein the parallel heating elements (210 1, 210 n) are formed at a slight angle with respect to the intended optical beam axis of said thermo-optic lens.
A method for controlling energy supply by a control device, the method comprising: identifying a first amount of energy to be used by at least one energy consuming device; identifying a second amount of energy stored in an energy storage; if the first amount of energy is greater than the second amount of energy, calculating a third amount of energy be supplied from an energy supplier based on at least the first amount of energy and the second amount of energy, and identifying an energy supply time period based on time-specific energy costs in the energy supplier; and transmitting, to the energy supplier, an energy supply request message comprising the third amount of energy and the energy supply time period, wherein the energy supply request message requests the supply of energy to the third amount of energy in the energy supply time period. identifying a first amount of energy to be used by at least one energy consuming device; identifying a second amount of energy stored in an energy storage; if the first amount of energy is greater than the second amount of energy, calculating a third amount of energy be supplied from an energy supplier based on at least the first amount of energy and the second amount of energy, and identifying an energy supply time period based on time-specific energy costs in the energy supplier; and transmitting, to the energy supplier, an energy supply request message comprising the third amount of energy and the energy supply time period, wherein the energy supply request message requests the supply of energy to the third amount of energy in the energy supply time period.
A method for manufacturing an organic light emitting display device, the method comprising: forming a substrate insulating film on an upper surface, a lower surface, and at least one side surface of a substrate; forming a filler layer on a surface of the substrate insulating film on the lower surface of the substrate; and forming an organic light emitting diode on a surface of the substrate insulating film on the upper surface of the substrate and wherein the filler layer consists of a fine filler having a spherical shape with a diameter less than a thickness of the substrate insulating film. forming a substrate insulating film on an upper surface, a lower surface, and at least one side surface of a substrate; forming a filler layer on a surface of the substrate insulating film on the lower surface of the substrate; and forming an organic light emitting diode on a surface of the substrate insulating film on the upper surface of the substrate and wherein the filler layer consists of a fine filler having a spherical shape with a diameter less than a thickness of the substrate insulating film.
A computer-implemented method for determining dental plaque, the method comprising the steps of: receiving a first 3D-image comprising at least one tooth and a second 3D-image comprising the at least one tooth, wherein the second 3D-image has been captured at a different point in time than the first 3D-image, comparing the first 3D-image and the second 3D-image with each other and determining, based on a deviation between the first 3D-image and the second 3D-image, a differential amount of dental plaque on the at least one tooth, and further comprising the step of transferring, within at least the first 3D-image, a grid comprising multiple grid segments (161a - 161i) onto the surface of the at least one tooth; wherein the grid segments (161a - 161i) represent Index Regions of a Dental Plaque Index comprising at least one of a Rustogi Modified Navy Plaque Index (RMNPI) and a Turesky-Modification of the Quigley Hein Plaque Index (TQHPI), and wherein the differential amount of dental plaque on the at least one tooth is determined based on the Index Regions of the Dental Plaque Index. receiving a first 3D-image comprising at least one tooth and a second 3D-image comprising the at least one tooth, wherein the second 3D-image has been captured at a different point in time than the first 3D-image, comparing the first 3D-image and the second 3D-image with each other and determining, based on a deviation between the first 3D-image and the second 3D-image, a differential amount of dental plaque on the at least one tooth, and further comprising the step of transferring, within at least the first 3D-image, a grid comprising multiple grid segments (161a - 161i) onto the surface of the at least one tooth; wherein the grid segments (161a - 161i) represent Index Regions of a Dental Plaque Index comprising at least one of a Rustogi Modified Navy Plaque Index (RMNPI) and a Turesky-Modification of the Quigley Hein Plaque Index (TQHPI), and wherein the differential amount of dental plaque on the at least one tooth is determined based on the Index Regions of the Dental Plaque Index.
A control method of a dual-drum washing machine of the type having a first washing drum, a second washing drum and a control system, comprising following steps: step S1: when the dual-drum washing machine has started operating and the first washing drum arrives at a heating procedure before heating; step S2: determining whether a second washing drum is being heated; step S3: if the determination result in step S2 is yes, determining whether a remaining heating time of the second washing drum is more than T 0; step S4: if the determination result in step S3 is yes, performing an alternate heating procedure in which the first washing drum and the second washing drum are heated alternately, and if the determination result in step S3 is no, performing a sequential heating procedure in which the second washing drum is heated before the first washing drum is heated, wherein T 0 is a time value, set through said control system, for determining whether heating of the second washing drum is coming to an end. step S1: when the dual-drum washing machine has started operating and the first washing drum arrives at a heating procedure before heating; step S2: determining whether a second washing drum is being heated; step S3: if the determination result in step S2 is yes, determining whether a remaining heating time of the second washing drum is more than T 0; step S4: if the determination result in step S3 is yes, performing an alternate heating procedure in which the first washing drum and the second washing drum are heated alternately, and if the determination result in step S3 is no, performing a sequential heating procedure in which the second washing drum is heated before the first washing drum is heated,
A method of wireless communication performed by a first wireless communication device (110, 120, 170), comprising: iterating (310; 510) a value of a channel access counter, CAC, based at least in part on a configured value of the CAC; determining (320; 520) that the value of the CAC satisfies a trigger value; utilizing (330; 530) a channel access mechanism to select a set of time-frequency resources for a transmission of a packet based at least in part on the value of the CAC satisfying the trigger value; and transmitting (340; 540) the packet to a second wireless communication device (110, 120, 170) via the selected set of time-frequency resources; wherein iterating (310; 510) the value of the CAC comprises: iterating the value of the CAC by an amount equal to: a quantity of elapsed candidate resources available in a slot or a quantity of elapsed available slots associated with a transmission window, or a combination of the quantity of elapsed candidate resources available in a slot and the quantity of elapsed available slots; or iterating the value of the CAC by a fractional value of a quantity of time-frequency resources available in a slot or by a multiple of the factional value. iterating (310; 510) a value of a channel access counter, CAC, based at least in part on a configured value of the CAC; determining (320; 520) that the value of the CAC satisfies a trigger value; utilizing (330; 530) a channel access mechanism to select a set of time-frequency resources for a transmission of a packet based at least in part on the value of the CAC satisfying the trigger value; and transmitting (340; 540) the packet to a second wireless communication device (110, 120, 170) via the selected set of time-frequency resources; wherein iterating (310; 510) the value of the CAC comprises: iterating the value of the CAC by an amount equal to: a quantity of elapsed candidate resources available in a slot or a quantity of elapsed available slots associated with a transmission window, or a combination of the quantity of elapsed candidate resources available in a slot and the quantity of elapsed available slots; or iterating the value of the CAC by a fractional value of a quantity of time-frequency resources available in a slot or by a multiple of the factional value. iterating the value of the CAC by an amount equal to: a quantity of elapsed candidate resources available in a slot or a quantity of elapsed available slots associated with a transmission window, or a combination of the quantity of elapsed candidate resources available in a slot and the quantity of elapsed available slots; or a quantity of elapsed candidate resources available in a slot or a quantity of elapsed available slots associated with a transmission window, or a combination of the quantity of elapsed candidate resources available in a slot and the quantity of elapsed available slots; or iterating the value of the CAC by a fractional value of a quantity of time-frequency resources available in a slot or by a multiple of the factional value.
A retractor for small-incision endoscopic surgery, the retractor having a base body and being configured to hold a surgical incision made in a body during the surgery in an opened state while applying the base body to the surgical incision, to ensure a surgical field in the small-incision endoscopic surgery, wherein the base body is a thin plate made of tin having a purity of not less than 99.9%, and has an elongated rectangular shape in an extended state of the base body, the rectangular shape has a width in the range of 1 to 5 cm and a length in the range of 3 to 20 cm, the base body has a thickness in the range of 0.5 to 2 mm, the entirety of the retractor is configured to be inserted from a small incision wound into the body, with the base body being extended into the rectangular shape, or being rounded into a small shape, the entirety of the retractor is configured to be delivered to the surgical incision in the body by a surgical instrument used in the small-incision endoscopic surgery, the base body is configured, when being applied to the surgical incision, to be bent and deformed into a desired form by the surgical instrument, and characterised in that the base body has, on one or both surfaces (A,B) thereof, an anti-slip protrusion (7,7A,7B,8,9). the base body is a thin plate made of tin having a purity of not less than 99.9%, and has an elongated rectangular shape in an extended state of the base body, the rectangular shape has a width in the range of 1 to 5 cm and a length in the range of 3 to 20 cm, the base body has a thickness in the range of 0.5 to 2 mm, the entirety of the retractor is configured to be inserted from a small incision wound into the body, with the base body being extended into the rectangular shape, or being rounded into a small shape, the entirety of the retractor is configured to be delivered to the surgical incision in the body by a surgical instrument used in the small-incision endoscopic surgery, the base body is configured, when being applied to the surgical incision, to be bent and deformed into a desired form by the surgical instrument, and characterised in that the base body has, on one or both surfaces (A,B) thereof, an anti-slip protrusion (7,7A,7B,8,9).