mhurhangee/patent-ind-claim-en huggingface dataset:
A method of cryopreserving an organotypically cultured skin equivalent to maintain viable tissue comprising: a) treating an organotypically cultured skin equivalent in a cryoprotectant solution in a single step, wherein said organotypically cultured skin equivalent comprises stratified squamous epithelia on a dermal layer comprising fibroblast, wherein the skin equivalent has been engineered to express and provide exogenous antimicrobial polypeptides or proangiogenic factors, and wherein said cryoprotectant is provided in a solution comprising 21% to 70% of the solution by volume, preferably 21% to 45% of the solution by volume or 37.5% to 62.5% of the solution by volume, more preferably 25% to 40% of the solution by volume or 42.5% to 57.5% of said solution by volume, depending on the temperature, and said cryoprotectant is glycerol; b) separating the treated organotypically cultured skin equivalent from excess cryoprotectant solution, and packaging said treated organotypically cultured skin equivalent in the absence of additional cryoprotectant to provide a packaged skin equivalent, wherein said packaging preferably further comprises enclosing said cryopreserved skin equivalent in a sterile bag and enclosing said sterile bag in a second bag; and c) freezing said packaged organotypically cultured skin equivalent to provide a cryopreserved skin equivalent. a) treating an organotypically cultured skin equivalent in a cryoprotectant solution in a single step, wherein said organotypically cultured skin equivalent comprises stratified squamous epithelia on a dermal layer comprising fibroblast, wherein the skin equivalent has been engineered to express and provide exogenous antimicrobial polypeptides or proangiogenic factors, and wherein said cryoprotectant is provided in a solution comprising 21% to 70% of the solution by volume, preferably 21% to 45% of the solution by volume or 37.5% to 62.5% of the solution by volume, more preferably 25% to 40% of the solution by volume or 42.5% to 57.5% of said solution by volume, depending on the temperature, and said cryoprotectant is glycerol; b) separating the treated organotypically cultured skin equivalent from excess cryoprotectant solution, and packaging said treated organotypically cultured skin equivalent in the absence of additional cryoprotectant to provide a packaged skin equivalent, wherein said packaging preferably further comprises enclosing said cryopreserved skin equivalent in a sterile bag and enclosing said sterile bag in a second bag; and c) freezing said packaged organotypically cultured skin equivalent to provide a cryopreserved skin equivalent.
Load transfer device for the laterally offset collection and transfer of harvested material , in particular of stalk-like biomass, to a transport vehicle, comprising - a pivotable unit for conveying the harvested material to a shredding unit designed to shred the harvested material, wherein the pivotable unit is pivotable between a use position folded out downwards and laterally in direction of the ground and a stowing position folded in upwards and laterally; - an intermediate store for receiving the shredded harvested material ; - a conveying apparatus arranged in the intermediate store for conveying the shredded harvested material out of the intermediate store to a load transfer unit of the load transfer device , by means of which the shredded harvested material can be conveyed into a load compartment of the transport vehicle arranged laterally beside the load transfer device , in particular over a load compartment wall of the load compartment, characterised in that the pivotable unit is additionally configured to pick up the harvested material from the ground in a laterally offset manner. - a pivotable unit for conveying the harvested material to a shredding unit designed to shred the harvested material, wherein the pivotable unit is pivotable between a use position folded out downwards and laterally in direction of the ground and a stowing position folded in upwards and laterally; - an intermediate store for receiving the shredded harvested material ; - a conveying apparatus arranged in the intermediate store for conveying the shredded harvested material out of the intermediate store to a load transfer unit of the load transfer device , by means of which the shredded harvested material can be conveyed into a load compartment of the transport vehicle arranged laterally beside the load transfer device , in particular over a load compartment wall of the load compartment,
A microphone assembly comprising: a transducer ; an electronic circuit operatively connected to the transducer ; wherein the electronic circuit comprises a test mode circuitry for selectively setting the microphone assembly in one or more test modes or an operational mode; wherein the one or more test modes enable determining at least one parameter of the transducer enabling characterization of the transducer without having to disassemble the microphone assembly, wherein the microphone assembly comprises a control pin for providing an input signal from the outside to the test mode circuitry , wherein the microphone assembly is enabled to be set in one of the test modes or the operational mode depending on the value of the input signal , wherein when the microphone assembly is in the test mode, the parameter of the transducer is obtainable from measuring an output of the electronic circuit for a specific input signal , wherein the electronic circuit comprises a collapse control for preventing or removing a collapse of the transducer and wherein the test mode circuitry is adapted to provide a control signal for disabling the collapse control . a transducer ; an electronic circuit operatively connected to the transducer ; wherein the electronic circuit comprises a test mode circuitry for selectively setting the microphone assembly in one or more test modes or an operational mode; wherein the one or more test modes enable determining at least one parameter of the transducer enabling characterization of the transducer without having to disassemble the microphone assembly, wherein the microphone assembly comprises a control pin for providing an input signal from the outside to the test mode circuitry , wherein the microphone assembly is enabled to be set in one of the test modes or the operational mode depending on the value of the input signal , wherein when the microphone assembly is in the test mode, the parameter of the transducer is obtainable from measuring an output of the electronic circuit for a specific input signal , wherein the electronic circuit comprises a collapse control for preventing or removing a collapse of the transducer and wherein the test mode circuitry is adapted to provide a control signal for disabling the collapse control .
A secure display stand for an electronic device or wearable or other object, the secure stand further for projecting electronic media onto a surface , the secure display stand comprising: a holder for holding said electronic device , said holder comprising; a socket ; an arm extending from a surface to said holder ; and a projector associated with said arm and directed towards said surface to project media images of said electronic media onto said surface , characterized in that said holder further comprises: a bracelet lock for locking around a body or bracelet or strap of the electronic device or wearable or other object to be displayed; and a bracket extending from said bracelet lock, the bracket having a charging element for charging of said wearable, wherein the lock is attached by a retractable cord to the socket . a socket ; an arm extending from a surface to said holder ; and a projector associated with said arm and directed towards said surface to project media images of said electronic media onto said surface , characterized in that said holder further comprises: a bracelet lock for locking around a body or bracelet or strap of the electronic device or wearable or other object to be displayed; and a bracket extending from said bracelet lock, the bracket having a charging element for charging of said wearable, wherein the lock is attached by a retractable cord to the socket . a bracelet lock for locking around a body or bracelet or strap of the electronic device or wearable or other object to be displayed; and a bracket extending from said bracelet lock, the bracket having a charging element for charging of said wearable, wherein the lock is attached by a retractable cord to the socket .
A method for increasing the responsiveness of a duct fired, combined cycle power generation plant , comprising: operating at least one gas turbine engine at a part load condition less than 100 percent load; operating at least one steam turbine engine via steam created at least in part from heat generated by the at least one gas turbine engine ; firing at least one supplemental burner to provide additional heat to a heat recovery steam generator upstream from the at least one steam turbine engine such that combined output of the at least one gas turbine engine at part load and the at least one steam turbine engine with additional steam input generated by firing the at least one supplemental burner upstream of the heat recovery steam generator upstream is at least as great as operating the at least one gas turbine engine at 100 percent load condition and the at least one steam turbine engine at 100 percent load condition; and controlling the at least one gas turbine engine to change output of the at least one gas turbine engine to accommodate changes in output demand of the duct fired, combined cycle power generation plant characterized in that the step of firing at least one supplemental burner to provide additional heat to a heat recovery steam generator upstream comprises firing at least one supplemental burner during a startup process in which the at least one gas turbine engine starts operating to enable the heat recovery steam generator to warm up faster and allow excess steam to be provided to gland seals and a condenser. operating at least one gas turbine engine at a part load condition less than 100 percent load; operating at least one steam turbine engine via steam created at least in part from heat generated by the at least one gas turbine engine ; firing at least one supplemental burner to provide additional heat to a heat recovery steam generator upstream from the at least one steam turbine engine such that combined output of the at least one gas turbine engine at part load and the at least one steam turbine engine with additional steam input generated by firing the at least one supplemental burner upstream of the heat recovery steam generator upstream is at least as great as operating the at least one gas turbine engine at 100 percent load condition and the at least one steam turbine engine at 100 percent load condition; and controlling the at least one gas turbine engine to change output of the at least one gas turbine engine to accommodate changes in output demand of the duct fired, combined cycle power generation plant characterized in that the step of firing at least one supplemental burner to provide additional heat to a heat recovery steam generator upstream comprises firing at least one supplemental burner during a startup process in which the at least one gas turbine engine starts operating to enable the heat recovery steam generator to warm up faster and allow excess steam to be provided to gland seals and a condenser.
Sensing assembly for sensing a process variable of a medium, preferably for sensing a temperature, comprising - one measuring insert for sensing the process variable, preferably for sensing a temperature, - one protective tube at least partially surrounding the measuring insert , which protective tube at least partially consists of a ceramic material and which protective tube is embodied to protect at least the measuring insert against at least one process condition, and - a connecting sleeve , which connecting sleeve at least partially consists of a metallic material, and which connection sleeve is at least surrounding the protective tube in an area facing away from the medium, - wherein the protective tube and the connecting sleeve are joint together at least in a predefined area (A) by means of a braze produced via a brazing component arranged in the predefined area (A), characterized in that - the protective tube is composed by alumina, silicon carbide or silicon nitride, and - the brazing component initially has the form of a solid body, namely a ring, composed by an active brazing alloy comprising titanium, copper and silver. - one measuring insert for sensing the process variable, preferably for sensing a temperature, - one protective tube at least partially surrounding the measuring insert , which protective tube at least partially consists of a ceramic material and which protective tube is embodied to protect at least the measuring insert against at least one process condition, and - a connecting sleeve , which connecting sleeve at least partially consists of a metallic material, and which connection sleeve is at least surrounding the protective tube in an area facing away from the medium, - wherein the protective tube and the connecting sleeve are joint together at least in a predefined area (A) by means of a braze produced via a brazing component arranged in the predefined area (A), characterized in that - the protective tube is composed by alumina, silicon carbide or silicon nitride, and - the brazing component initially has the form of a solid body, namely a ring, composed by an active brazing alloy comprising titanium, copper and silver.
Method for automatically configuring an external control system for the open-loop and/or closed-loop control of a robot system , having the following steps of: - providing an external control system and a robot system which has at least one manipulator and a robot controller , - setting up a connection for interchanging data between the robot system and the external control system , - transmitting description data from the robot system to the external control system , wherein the description data contain information for setting up communication between the external control system and the robot controller and data relating to the manipulator of the robot system , wherein the data relating to the manipulator comprise information relating to one or more of the following features: kinematics, axes, DH parameters, masses, mass inertia, centres of gravity, jerking, torques, motor data, static and/or dynamic fiction, gear ratio, - automatically creating a mathematical robot model, which is used to calculate the movement of the manipulator and to correctly actuate the manipulator , by means of the external control system on the basis of the received description data, and - automatically setting up the communication between the external control system and the robot controller on the basis of the received description data, - the external control system automatically assuming the open-loop and/or closed-loop sovereignty over the robot system . - providing an external control system and a robot system which has at least one manipulator and a robot controller , - setting up a connection for interchanging data between the robot system and the external control system , - transmitting description data from the robot system to the external control system , wherein the description data contain information for setting up communication between the external control system and the robot controller and data relating to the manipulator of the robot system , wherein the data relating to the manipulator comprise information relating to one or more of the following features: kinematics, axes, DH parameters, masses, mass inertia, centres of gravity, jerking, torques, motor data, static and/or dynamic fiction, gear ratio, - automatically creating a mathematical robot model, which is used to calculate the movement of the manipulator and to correctly actuate the manipulator , by means of the external control system on the basis of the received description data, and - automatically setting up the communication between the external control system and the robot controller on the basis of the received description data, - the external control system automatically assuming the open-loop and/or closed-loop sovereignty over the robot system .
A ceramic mass, comprising a long-term stable compound of crystalline phases of apatite, wollastonite, cristobalite, and titanite, which is stabilized by a glass phase, wherein a long-term stabile compound is understood to be a material which, during an application period which corresponds to a typical life span of a human being, is not resorbed, and is not replaced by natural bone, in contrast to a resorbable material, wherein the raw materials used for producing the ceramic mass comprise 35-45 mass% SiO 2 , 25-35 mass% CaO, 10-15 mass% P 2 O 5 , 2-4 mass% MgO, 4-6 mass% CaF 2 , and 5-10 mass% Ti02 alone or in combination with at least one alkali oxide selected from 0.001-5 mass% Na 2 O and 0.001-0.2 mass% K 2 O, wherein a proportion of the glass phase in the ceramic mass after sintering is less than 25 mass%, and wherein the ceramic mass is producible by a first sintering step without pressure at a temperature in the range from 650°C to 800°C for a period of 1 to 48 hours, a grinding of the sintered ceramic mass obtained from the first sintering step, and a second sintering step without pressure at a temperature in the range from 850°C to 1200°C for a period of 1 to 48 hours.
A method of oxidising fuel in a fluidised bed, the method comprising the following steps in the following number order: (i) adding bed materials to a fluidised bed reactor , wherein the bed materials are capable of forming a fluidised bed; (ii) forming a fluidised bed by applying gas to the bed materials; (iii) adding fuel to the fluidised bed reactor ; (iv) adding both a clay mineral and a catalyst to the fluidised bed reactor ; (v) forming a fluidised bed by applying gas to the mixture of bed materials, clay mineral, catalyst and fuel; and, (vi) applying heat to oxidise the fuel; characterised in that the clay mineral and the catalyst are added at the same time. (i) adding bed materials to a fluidised bed reactor , wherein the bed materials are capable of forming a fluidised bed; (ii) forming a fluidised bed by applying gas to the bed materials; (iii) adding fuel to the fluidised bed reactor ; (iv) adding both a clay mineral and a catalyst to the fluidised bed reactor ; (v) forming a fluidised bed by applying gas to the mixture of bed materials, clay mineral, catalyst and fuel; and, (vi) applying heat to oxidise the fuel; characterised in that the clay mineral and the catalyst are added at the same time.
A container for consumer goods, comprising: a housing comprising a box and a lid hingedly attached to the box, the lid comprising a front wall , wherein the lid has an inner surface and an outer surface and the front wall of the box has an upper edge ; an inner package disposed within the housing and at least partially defining an interior volume for housing consumer goods, the inner package comprising a first layer and a second layer , the first layer comprising a flap , the flap attached to the inner surface of the lid and the flap configured to be releasably attached to a sealing region of the second layer to open and close the inner package by opening and closing the lid; and an insert positioned between the inner surface of the front wall of the box and the outer surface of the front wall of the inner package, wherein the insert has an upper edge , wherein the insert is positioned entirely below the sealing region and positioned so that the lowest point of the upper edge of the box is lower than the highest point of the upper edge of the insert, and wherein the sealing region and upper edge of the insert are rectilinear and horizontal. a housing comprising a box and a lid hingedly attached to the box, the lid comprising a front wall , wherein the lid has an inner surface and an outer surface and the front wall of the box has an upper edge ; an inner package disposed within the housing and at least partially defining an interior volume for housing consumer goods, the inner package comprising a first layer and a second layer , the first layer comprising a flap , the flap attached to the inner surface of the lid and the flap configured to be releasably attached to a sealing region of the second layer to open and close the inner package by opening and closing the lid; and an insert positioned between the inner surface of the front wall of the box and the outer surface of the front wall of the inner package, wherein the insert has an upper edge , wherein the insert is positioned entirely below the sealing region and positioned so that the lowest point of the upper edge of the box is lower than the highest point of the upper edge of the insert, and wherein the sealing region and upper edge of the insert are rectilinear and horizontal.
System which can be used in a glass drawing process, the system comprising: a refractory tube having a tubular element and at least one surface element , on which refractory tube during the drawing process molten glass runs onto a contact surface area of the refractory tube, and a carrier , which carries the refractory tube and which is connected with the refractory tube in a non-rotating manner, wherein the contact surface area of the refractory tube is allocated at least in part on the surface element , wherein the surface element covers at least one surface of an end section of the tubular element , and which surface element projects at least in part over the end section of the tubular element, wherein at least one portion of the part of the surface element projecting over the end section of the tubular element is connected at least in part to at least one tensioning element which is further comprised by the system . a refractory tube having a tubular element and at least one surface element , on which refractory tube during the drawing process molten glass runs onto a contact surface area of the refractory tube, and a carrier , which carries the refractory tube and which is connected with the refractory tube in a non-rotating manner, wherein the contact surface area of the refractory tube is allocated at least in part on the surface element , wherein the surface element covers at least one surface of an end section of the tubular element , and which surface element projects at least in part over the end section of the tubular element, wherein at least one portion of the part of the surface element projecting over the end section of the tubular element is connected at least in part to at least one tensioning element which is further comprised by the system .