mhurhangee/ep-ind-claims huggingface dataset:
A dental tray system comprising: a dental tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) having a body having at least one channel for receiving a quantity of photocurable dental material (16; 17; 18; 19; 50; 110), wherein said body comprises at least one light conductor and wherein said body is reusable; wherein the dental tray system further comprises at least a light engine (35; 400) having at least one battery or is connectable to an electrical power source and at least one light source (59; 60; 61), wherein the dental tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) further includes an insert that is pre-filled with the photocurable dental material (16; 17; 18; 19; 50; 110) and the insert is placed into the channel, wherein the light source is capable of connecting to the dental tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) such that the light source is optically coupled to the light conductor, and wherein said light conductor extends along said body of the dental tray and is oriented toward the internal and external portion of a dental arch to allow for adequate curing of the dental material (16; 17; 18; 19; 50; 110) in the body and the dental dmaterial (16; 17; 18; 19; 50; 110) that overflows outside the body, and wherein the dental tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) is a triple tray light pipe illuminated tray with a reflective coating on the outside, and wherein the triple tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) has selective clear areas on the upper and lower edges of the sidewall that permit light to escape and cure material that overflows the triple tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) borders a dental tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) having a body having at least one channel for receiving a quantity of photocurable dental material (16; 17; 18; 19; 50; 110), wherein said body comprises at least one light conductor and wherein said body is reusable; wherein the dental tray system further comprises at least a light engine (35; 400) having at least one battery or is connectable to an electrical power source and at least one light source (59; 60; 61), wherein the dental tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) further includes an insert that is pre-filled with the photocurable dental material (16; 17; 18; 19; 50; 110) and the insert is placed into the channel, wherein the light source is capable of connecting to the dental tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) such that the light source is optically coupled to the light conductor, and wherein said light conductor extends along said body of the dental tray and is oriented toward the internal and external portion of a dental arch to allow for adequate curing of the dental material (16; 17; 18; 19; 50; 110) in the body and the dental dmaterial (16; 17; 18; 19; 50; 110) that overflows outside the body, and wherein the dental tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) is a triple tray light pipe illuminated tray with a reflective coating on the outside, and wherein the triple tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) has selective clear areas on the upper and lower edges of the sidewall that permit light to escape and cure material that overflows the triple tray (8; 8a; 8b; 8c; 8e; 8f; 200; 500) borders
Control system for a wind energy installation/a wind farm, wherein the control system is designed to process measurement values and/or external demands in order to identify control presets for the operation of the wind energy installation/the wind farm, wherein the control system has an input for an actual value of the grid frequency, characterized in that the control system converts a deviation of the actual value of the grid frequency from a setpoint value of the grid frequency to a control preset for the voltage in the grid.
An aluminum casting alloy consisting of: 8.5 - 9.5 wt. % silicon; 0.8 - 2.0 wt. % copper (Cu); 0.20 - 0.53 wt. % magnesium (Mg); 0.35 to 0.8 wt. % manganese; up to 5.0 wt. % zinc; up to 1.0 wt. % silver; up to 1.0 wt. % nickel; up to 1.0 wt. % hafnium; up to 1.0 wt. % iron; up to 0.30 wt. % titanium; 0.05 to 0.30 wt. % zirconium; 0.05 to 0.30 wt. % vanadium; wherein the total amount of Zr+V is from 0.10 wt. % to 0.50 wt. %; up to 0.10 wt. % of one or more of strontium, sodium and antimony; other elements being ≤ 0.04 wt. % each and ≤ 0.12 wt. % in total; the balance being aluminum. 8.5 - 9.5 wt. % silicon; 0.8 - 2.0 wt. % copper (Cu); 0.20 - 0.53 wt. % magnesium (Mg); 0.35 to 0.8 wt. % manganese; up to 5.0 wt. % zinc; up to 1.0 wt. % silver; up to 1.0 wt. % nickel; up to 1.0 wt. % hafnium; up to 1.0 wt. % iron; up to 0.30 wt. % titanium; 0.05 to 0.30 wt. % zirconium; 0.05 to 0.30 wt. % vanadium; wherein the total amount of Zr+V is from 0.10 wt. % to 0.50 wt. %; up to 0.10 wt. % of one or more of strontium, sodium and antimony; other elements being ≤ 0.04 wt. % each and ≤ 0.12 wt. % in total; the balance being aluminum.
A method of making a transfer tray, comprising the steps of: providing a physical mockup having a shape that corresponds to a positive shape of a patient's dental arch and a positive shape of one or more bracket analogs; forming a transfer tray over the physical mockup, the transfer tray comprising a negative replica of at least a portion of the mockup, wherein forming the transfer tray creates one or more receptacles, each receptacle featuring a least a portion of the shape of a bracket analog; placing a bracket associated with a bracket analog into a receptacle of the one or more receptacles; introducing a filler material into at least one receptacle; the method comprising forming a channel in the tray, wherein the channel extends from an exterior surface of the tray to the receptacle, and wherein introducing a filler into the receptacle comprises introducing the filler through the channel. providing a physical mockup having a shape that corresponds to a positive shape of a patient's dental arch and a positive shape of one or more bracket analogs; forming a transfer tray over the physical mockup, the transfer tray comprising a negative replica of at least a portion of the mockup, wherein forming the transfer tray creates one or more receptacles, each receptacle featuring a least a portion of the shape of a bracket analog; placing a bracket associated with a bracket analog into a receptacle of the one or more receptacles; introducing a filler material into at least one receptacle; the method comprising forming a channel in the tray, wherein the channel extends from an exterior surface of the tray to the receptacle, and wherein introducing a filler into the receptacle comprises introducing the filler through the channel.
A membrane puncturing mechanism comprising: a first element and a second element arranged with opposing surfaces (46, 48), at least one opposing surface (46, 48) comprising a sloping region (50, 52) inclined relative to the other opposing surface (46, 48), the first element being moveable towards and away from the second element; a pin for puncturing a membrane, the pin being coupled to the first element such that movement of one of the pin and first element causes movement of both; a spring operable to bias the first element towards the second element; and an actuator removably positioned between the opposing surfaces (46, 48), the actuator being withdrawable from between and moveable along the opposing surfaces (46, 48), such that, as the actuator is withdrawn, the actuator progressively moves the first and second elements (16, 14) apart against the bias of the spring so as to load the spring, and the actuator being fully withdrawn from between the opposing surfaces (46, 48) allows the first element to move towards the second element under the load of the spring thereby moving the pin for puncturing the membrane, characterised in that: the membrane puncturing mechanism further comprises a locking element moveable between a locked position to prevent removal of the actuator from between the opposing surfaces (46, 48) and an unlocked position to allow removal of the actuator from between the opposing surfaces (46, 48). a first element and a second element arranged with opposing surfaces (46, 48), at least one opposing surface (46, 48) comprising a sloping region (50, 52) inclined relative to the other opposing surface (46, 48), the first element being moveable towards and away from the second element; a pin for puncturing a membrane, the pin being coupled to the first element such that movement of one of the pin and first element causes movement of both; a spring operable to bias the first element towards the second element; and an actuator removably positioned between the opposing surfaces (46, 48), the actuator being withdrawable from between and moveable along the opposing surfaces (46, 48), such that, as the actuator is withdrawn, the actuator progressively moves the first and second elements (16, 14) apart against the bias of the spring so as to load the spring, and the actuator being fully withdrawn from between the opposing surfaces (46, 48) allows the first element to move towards the second element under the load of the spring thereby moving the pin for puncturing the membrane, characterised in that: the membrane puncturing mechanism further comprises a locking element moveable between a locked position to prevent removal of the actuator from between the opposing surfaces (46, 48) and an unlocked position to allow removal of the actuator from between the opposing surfaces (46, 48).
An add-on module adapted to couple to a network device for processing data traffic flowing through the network device, the add-on module comprising: a plurality of ports; a data interface adapted to receive said data traffic; an inspection engine adapted to analyze said data traffic, wherein said analyzing is performed on at least payload data, and wherein said inspection engine is adapted to filter said data traffic based on a set of filtering criteria for routing said data traffic through said ports; and a load balancing engine adapted to distribute said data traffic across said ports, wherein said load balancing engine is adapted to dynamically balance said data traffic across said ports by reconfiguring itself if data traffic at one of said ports is above a threshold, wherein said load balancing engine is adapted to distribute said data traffic based on a set of parameters, and wherein said set of parameters includes percentage distributions based on said set of filtering criteria for routing said data traffic through said ports. a plurality of ports; a data interface adapted to receive said data traffic; an inspection engine adapted to analyze said data traffic, wherein said analyzing is performed on at least payload data, and wherein said inspection engine is adapted to filter said data traffic based on a set of filtering criteria for routing said data traffic through said ports; and a load balancing engine adapted to distribute said data traffic across said ports, wherein said load balancing engine is adapted to dynamically balance said data traffic across said ports by reconfiguring itself if data traffic at one of said ports is above a threshold, wherein said load balancing engine is adapted to distribute said data traffic based on a set of parameters, and wherein said set of parameters includes percentage distributions based on said set of filtering criteria for routing said data traffic through said ports.
An apparatus for controlling transmission of a Dual clutch transmission provided with a normally-closed type clutch, comprising: a gear lever position detecting unit receiving a gear lever operation of a driver; a gear position monitoring unit monitoring a position of a gear in the transmission; and a control unit determining whether a gear shift is abnormal on the basis of the position of the gear lever and the gear position monitored through the gear position monitoring unit to control the transmission to be maintained in a neutral state; and setting a power stage state to OFF at a preset critical point before the gear position input from the gear position monitoring unit reaches a synchronization point, when it is determined that the gear position is abnormal, whereby the power stage state OFF is a state which results in closing the normally-closed type clutch of the Dual clutch transmission, characterized in that: the control unit determines that the gear shift is abnormal when the gear position input from the gear position monitoring unit moves to a gear position corresponding to the D range in a case in which the gear lever position detected through the gear lever position detecting unit is within a P or N range. a gear lever position detecting unit receiving a gear lever operation of a driver; a gear position monitoring unit monitoring a position of a gear in the transmission; and a control unit determining whether a gear shift is abnormal on the basis of the position of the gear lever and the gear position monitored through the gear position monitoring unit to control the transmission to be maintained in a neutral state; and setting a power stage state to OFF at a preset critical point before the gear position input from the gear position monitoring unit reaches a synchronization point, when it is determined that the gear position is abnormal, whereby the power stage state OFF is a state which results in closing the normally-closed type clutch of the Dual clutch transmission, characterized in that: the control unit determines that the gear shift is abnormal when the gear position input from the gear position monitoring unit moves to a gear position corresponding to the D range in a case in which the gear lever position detected through the gear lever position detecting unit is within a P or N range.
A cartridge type optical functional module comprising: first and second optical fiber collimators (2, 3) opposed to each other; an optical functional object including at least one optical device having an optical function placed therein and positioned to allow optical coupling between the first and second optical fiber collimators (2, 3); and a base part that fixes the first and second optical fiber collimators (2, 3) and in which the optical functional object is detachably placed, wherein the optical device is an optical fiber-based module or a waveguide-based module, and the optical functional object includes: a third collimator; and a first alignment mechanism to align a position of the third collimator in the optical functional object. first and second optical fiber collimators (2, 3) opposed to each other; an optical functional object including at least one optical device having an optical function placed therein and positioned to allow optical coupling between the first and second optical fiber collimators (2, 3); and a base part that fixes the first and second optical fiber collimators (2, 3) and in which the optical functional object is detachably placed, wherein the optical device is an optical fiber-based module or a waveguide-based module, and the optical functional object includes: a third collimator; and a first alignment mechanism to align a position of the third collimator in the optical functional object. a third collimator; and a first alignment mechanism to align a position of the third collimator in the optical functional object.
A method for releasing sugar chains from a glycoprotein having sugar chains and proteins binding through N-glycosidic bond or O-glycosidic bond, comprising: a step of bringing a reaction solution which contains hydroxylamines (a) and a basic reagent (b) into contact with the glycoprotein and cleaving the N-glycosidic bond or O-glycosidic bond, to obtain a mixed solution of the sugar chains released from the glycoprotein and the reaction solution, wherein the hydroxylamines (a) are at least one compound selected from the group consisting of a hydroxylamine aqueous solution, hydroxylamine sulfate, hydroxylamine phosphate, O-methylhydroxylamine hydrochloride, O-ethylhydroxylamine hydrochloride, O-(tetrahydro-2H-pyran-2-yl)hydroxylamine, nitrobenzylhydroxylamine hydrochloride, O-tert-butyldimethylsilylhydroxylamine, and O-trimethylsilylhydroxylamine. a step of bringing a reaction solution which contains hydroxylamines (a) and a basic reagent (b) into contact with the glycoprotein and cleaving the N-glycosidic bond or O-glycosidic bond, to obtain a mixed solution of the sugar chains released from the glycoprotein and the reaction solution, wherein the hydroxylamines (a) are at least one compound selected from the group consisting of a hydroxylamine aqueous solution, hydroxylamine sulfate, hydroxylamine phosphate, O-methylhydroxylamine hydrochloride, O-ethylhydroxylamine hydrochloride, O-(tetrahydro-2H-pyran-2-yl)hydroxylamine, nitrobenzylhydroxylamine hydrochloride, O-tert-butyldimethylsilylhydroxylamine, and O-trimethylsilylhydroxylamine.
A cosmetic composition comprising: (i) a chaga ( Inonotus obliquus) extract; (ii) vitamin C or a vitamin C derivative; (iii) vitamin E or a vitamin E derivative; (iv) vitamin B5 or a vitamin B5 derivative; (v) coenzyme Q10; and (vi) one or more physiologically or pharmaceutically acceptable excipients and/or diluents, wherein the composition comprises the chaga extract at a concentration of at least 2.5mg/ml and the chaga extract comprises at least 1% (w/w) of β-glucans and at least 0.10% (w/w) of polyphenolics. (i) a chaga ( Inonotus obliquus) extract; (ii) vitamin C or a vitamin C derivative; (iii) vitamin E or a vitamin E derivative; (iv) vitamin B5 or a vitamin B5 derivative; (v) coenzyme Q10; and (vi) one or more physiologically or pharmaceutically acceptable excipients and/or diluents,
A vehicular energy storage module, comprising - an outer casing having two parallel first and second side walls (101, 102), parallel upper and lower walls (103, 104), and opposing first and second ends (105, 106); - a battery module housed inside the casing, the battery module including: - a plurality of battery cell groups, where each battery cell group includes at least two battery cells (121, 122, 123) which are electrically interconnected to each other and arranged side-by-side between the side walls (101, 102); characterized in - that the battery module comprises multiple heat pipes, wherein each heat pipe comprises parallel first and second heat pipe sections (132, 133) connected by intermediate sections (134, 135) at their respective ends; - that at least one heat pipe has a first heat pipe section electrically connected to the positive poles of a first battery cell group and a second heat pipe section electrically connected to the negative poles of an adjacent battery cell group; - that heat pipes are arranged in contact with positive and negative poles of adjacent battery cell groups on opposite sides of the battery module; wherein the battery cell groups making up the battery module are connected in series, - that the intermediate sections (134, 135) of each heat pipe are thermally coupled to at least one passive heat sink encased within a side wall in the casing, and - that the casing is open at the first and second ends (105, 106), wherein the first and second side walls (101, 102), and the upper and lower walls (103, 104) form a conduit for a cooling fluid.. - an outer casing having two parallel first and second side walls (101, 102), parallel upper and lower walls (103, 104), and opposing first and second ends (105, 106); - a battery module housed inside the casing, the battery module including: - a plurality of battery cell groups, where each battery cell group includes at least two battery cells (121, 122, 123) which are electrically interconnected to each other and arranged side-by-side between the side walls (101, 102); - that the battery module comprises multiple heat pipes, wherein each heat pipe comprises parallel first and second heat pipe sections (132, 133) connected by intermediate sections (134, 135) at their respective ends; - that at least one heat pipe has a first heat pipe section electrically connected to the positive poles of a first battery cell group and a second heat pipe section electrically connected to the negative poles of an adjacent battery cell group; - that heat pipes are arranged in contact with positive and negative poles of adjacent battery cell groups on opposite sides of the battery module; wherein the battery cell groups making up the battery module are connected in series, - that the intermediate sections (134, 135) of each heat pipe are thermally coupled to at least one passive heat sink encased within a side wall in the casing, and - that the casing is open at the first and second ends (105, 106), wherein the first and second side walls (101, 102), and the upper and lower walls (103, 104) form a conduit for a cooling fluid..
A filtered feedthrough assembly, comprising: a ferrule; a capacitor comprising a top portion, a bottom portion, and an inner diameter portion, wherein the inner diameter portion defines at least one aperture extending from the top portion to the bottom portion; at least one terminal pin extending through the at least one aperture and having an outer diameter; and a support structure configured to be received within the ferrule comprising at least one deformable projection extending from a first side, the at least one projection comprising an inner circumference defining an opening extending through the support structure to a second side opposing the first side, wherein the at least one projection extends into the at least one aperture of the capacitor and the at least one terminal pin extends through the opening, characterized in that the support structure is coupled to the capacitor through a frictional fit of the at least one projection into the at least one aperture of the capacitor and a frictional fit of the terminal pin in the opening in the projection and without the use of non-conductive epoxy, wherein the outer diameter of the pin is greater than the inner circumference of the opening when non-deformed. a ferrule; a capacitor comprising a top portion, a bottom portion, and an inner diameter portion, wherein the inner diameter portion defines at least one aperture extending from the top portion to the bottom portion; at least one terminal pin extending through the at least one aperture and having an outer diameter; and a support structure configured to be received within the ferrule comprising at least one deformable projection extending from a first side, the at least one projection comprising an inner circumference defining an opening extending through the support structure to a second side opposing the first side, wherein the at least one projection extends into the at least one aperture of the capacitor and the at least one terminal pin extends through the opening, characterized in that the support structure is coupled to the capacitor through a frictional fit of the at least one projection into the at least one aperture of the capacitor and a frictional fit of the terminal pin in the opening in the projection and without the use of non-conductive epoxy, wherein the outer diameter of the pin is greater than the inner circumference of the opening when non-deformed.