mhurhangee/patent-ind-claim-en huggingface dataset:
A device for supporting substrates in a reaction chamber of an epitaxial reactor, comprising: - a disc-shaped element having a first face adapted to be upperly positioned when the device is being used and a second face adapted to be lowerly positioned when the device is being used, said disc-shaped element being adapted to receive a gas flow (F) to rotate the device about an axis (X) thereof, - a substrate-supporting element in a single piece with said disc-shaped element and preferably adjacent to said first face , - a shaft coaxial to said disc-shaped element , in a single piece with said disc-shaped element and having a first end at said second face ; - a pyrometer or a thermographic camera; wherein said shaft has at a second end thereof at least a protrusion whose rotation is adapted to be detected by the pyrometer or the thermographic camera; wherein the pyrometer or the thermographic camera is directed towards said at least a protrusion so to be adapted to detect the rotation of said at least a protrusion . - a disc-shaped element having a first face adapted to be upperly positioned when the device is being used and a second face adapted to be lowerly positioned when the device is being used, said disc-shaped element being adapted to receive a gas flow (F) to rotate the device about an axis (X) thereof, - a substrate-supporting element in a single piece with said disc-shaped element and preferably adjacent to said first face , - a shaft coaxial to said disc-shaped element , in a single piece with said disc-shaped element and having a first end at said second face ; - a pyrometer or a thermographic camera; wherein said shaft has at a second end thereof at least a protrusion whose rotation is adapted to be detected by the pyrometer or the thermographic camera; wherein the pyrometer or the thermographic camera is directed towards said at least a protrusion so to be adapted to detect the rotation of said at least a protrusion .
A method for joining fibre-reinforced plastic (FRP) components , in particular aircraft FRP components, comprising the following steps: i) Providing a first and a second FRP component, the first FRP component having a recess ; ii) Inserting a stabilising device into the recess of the first FRP component , wherein the stabilising device has a preferably elongated base body with a cavity , an opening and a pressing element , which pressing element has, at least partially, a higher flexibility than the base body , wherein the pressing element comprises a bag , which is arranged inside the cavity and which can be filled with a fluid to generate an outwardly directed pressure force (F), wherein the bag , when in filled state, is arranged, to at least partially protrude through the opening , in order to generate the pressure force (F) onto a delimiting surface of the first FRP component , which is delimiting the recess , wherein the pressing element further comprises a heat-insulating element , which is arranged on the outside of the base body , so that the pressure force (F) can be transmitted via the heat-insulating element to the first FRP component ; iii) Filling the cavity with a fluid such that the pressing element is pressed against a delimiting surface of the first FRP component , which delimits the recess ; iv) Connecting the first FRP component to the second FRP component by joining at a connecting point , in particular by welding, wherein the pressure force (F), which is directed towards the outside, is exerted onto the connecting point by means of the pressing element for stabilising the shape of the recess . i) Providing a first and a second FRP component, the first FRP component having a recess ; ii) Inserting a stabilising device into the recess of the first FRP component , wherein the stabilising device has a preferably elongated base body with a cavity , an opening and a pressing element , which pressing element has, at least partially, a higher flexibility than the base body , wherein the pressing element comprises a bag , which is arranged inside the cavity and which can be filled with a fluid to generate an outwardly directed pressure force (F), wherein the bag , when in filled state, is arranged, to at least partially protrude through the opening , in order to generate the pressure force (F) onto a delimiting surface of the first FRP component , which is delimiting the recess , wherein the pressing element further comprises a heat-insulating element , which is arranged on the outside of the base body , so that the pressure force (F) can be transmitted via the heat-insulating element to the first FRP component ; iii) Filling the cavity with a fluid such that the pressing element is pressed against a delimiting surface of the first FRP component , which delimits the recess ; iv) Connecting the first FRP component to the second FRP component by joining at a connecting point , in particular by welding, wherein the pressure force (F), which is directed towards the outside, is exerted onto the connecting point by means of the pressing element for stabilising the shape of the recess .
An additive for a non-aqueous electrolyte solution of a lithium secondary battery which is a compound represented by Formula 1: wherein, in Formula 1, Y is a substituted or unsubstituted alkylene group having 1 to 10 carbon atoms.
Impression tray for creating an impression complementary to a tooth row or a partial tooth row of a human or animal jaw, - having an inner wall which forms an elongated curved recess for the reception of impression material, - the inner wall has at least one undercut and - the recess is formed at least partially substantially so as to be complementary in shape to the tooth row or the partial tooth row, wherein the recess has a number of pockets at the bottom side, and the undercut is arranged at a plurality of lateral indentations formed in the inner wall and o the undercut forms an upper termination of the indentations , o wherein the indentations are designed in the shape of lateral pockets which are configured such that they are able to accommodate impression material, ∘ wherein the undercut is formed by way of a plurality of adjacent indentations , ∘ wherein the indentations lie at the same height and ∘ wherein each indentation is assigned to a tooth of the tooth row. - having an inner wall which forms an elongated curved recess for the reception of impression material, - the inner wall has at least one undercut and - the recess is formed at least partially substantially so as to be complementary in shape to the tooth row or the partial tooth row, o the undercut forms an upper termination of the indentations , o wherein the indentations are designed in the shape of lateral pockets which are configured such that they are able to accommodate impression material, ∘ wherein the undercut is formed by way of a plurality of adjacent indentations , ∘ wherein the indentations lie at the same height and ∘ wherein each indentation is assigned to a tooth of the tooth row.
An enteral feeding pump suitable for use with a feeding set to deliver nutritional liquid through the feeding set, the enteral feeding pump comprising: a housing capable of receiving at least a portion of the feeding set; a pumping device mounted in the housing and configured to act on the feeding set to produce fluid flow in the feeding set when the feeding set is received by the housing; a processor operatively connected to the pumping device; a reader operatively connected to the processor and configured to read an identification member of the feeding set to recognize automatically the type of feeding set installed upon engagement of the feeding set with the housing, wherein the reader is configured to read the feeding set to identify at least one characteristic of the nutritional liquid pertaining to delivering the nutritional liquid through the feeding set; and memory which stores a set of instructions for determining a flow rate for the pump based on the at least one characteristic of the nutritional liquid; and, wherein the processor is configured to use the instructions to monitor the pumping parameters and intermittently adjust an instantaneous operating flow rate for the pump to achieve a target-feeding rate. a housing capable of receiving at least a portion of the feeding set; a pumping device mounted in the housing and configured to act on the feeding set to produce fluid flow in the feeding set when the feeding set is received by the housing; a processor operatively connected to the pumping device; a reader operatively connected to the processor and configured to read an identification member of the feeding set to recognize automatically the type of feeding set installed upon engagement of the feeding set with the housing, wherein the reader is configured to read the feeding set to identify at least one characteristic of the nutritional liquid pertaining to delivering the nutritional liquid through the feeding set; and memory which stores a set of instructions for determining a flow rate for the pump based on the at least one characteristic of the nutritional liquid; and, wherein the processor is configured to use the instructions to monitor the pumping parameters and intermittently adjust an instantaneous operating flow rate for the pump to achieve a target-feeding rate.
A pretreatment cup comprising: a base comprising an exterior base surface ; a wall comprising an exterior wall surface ; and an opening circumscribed by a rim , wherein the opening is at least partially opposite the base; wherein the exterior base surface is connected to the exterior wall surface at an exterior periphery surface ; wherein a surface selected from the group consisting of: the exterior base surface , the exterior wall surface , the exterior periphery surface , and combinations thereof, comprises a scrubbing region , whereby the scrubbing region comprises at least two elongated protrusions , spaced apart by a distance between the elongated protrusions , the elongated protrusions having a length to width ratio of greater than 2, wherein the distance between the elongated protrusions is less than the height of the elongated protrusions , at the position where the distance between the elongated protrusions is a minimum, characterised in that the length of the elongated protrusions is measured as the axial length , along the major axis of the elongated protrusions , on the surface which comprises the elongated protrusion , the height of the elongated protrusion is measured perpendicular to the surface, from the length , the width is measured perpendicular to the length of the elongated protrusions , on the surface which comprises the elongated protrusion . a base comprising an exterior base surface ; a wall comprising an exterior wall surface ; and an opening circumscribed by a rim , wherein the opening is at least partially opposite the base; wherein the exterior base surface is connected to the exterior wall surface at an exterior periphery surface ; wherein a surface selected from the group consisting of: the exterior base surface , the exterior wall surface , the exterior periphery surface , and combinations thereof, comprises a scrubbing region , whereby the scrubbing region comprises at least two elongated protrusions , spaced apart by a distance between the elongated protrusions , the elongated protrusions having a length to width ratio of greater than 2, wherein the distance between the elongated protrusions is less than the height of the elongated protrusions , at the position where the distance between the elongated protrusions is a minimum, characterised in that the length of the elongated protrusions is measured as the axial length , along the major axis of the elongated protrusions , on the surface which comprises the elongated protrusion , the height of the elongated protrusion is measured perpendicular to the surface, from the length , the width is measured perpendicular to the length of the elongated protrusions , on the surface which comprises the elongated protrusion .
A hydraulically activated setting tool for setting an auxiliary tool in a well, the setting tool comprising: a housing that prevents a well fluid from entering inside the housing; a floating piston and pressure chamber , both placed inside the housing and configured such that the floating piston closes an end of the pressure chamber; an attached piston placed inside the housing and configured to actuate the auxiliary tool; a fluid chamber located between the floating piston and the attached piston , wherein the fluid chamber holds a fluid ; and a punch charge placed inside the pressure chamber and configured to make a hole into the housing and a wall of the pressure chamber and to establish a fluid communication between an outside and an inside of the pressure chamber of the housing, wherein the fluid communication makes a well fluid in the well to enter inside the housing and to directly act on the floating piston , which acts on the fluid , which in turn actuates the attached piston . a housing that prevents a well fluid from entering inside the housing; a floating piston and pressure chamber , both placed inside the housing and configured such that the floating piston closes an end of the pressure chamber; an attached piston placed inside the housing and configured to actuate the auxiliary tool; a fluid chamber located between the floating piston and the attached piston , wherein the fluid chamber holds a fluid ; and a punch charge placed inside the pressure chamber and configured to make a hole into the housing and a wall of the pressure chamber and to establish a fluid communication between an outside and an inside of the pressure chamber of the housing, wherein the fluid communication makes a well fluid in the well to enter inside the housing and to directly act on the floating piston , which acts on the fluid , which in turn actuates the attached piston .
A closing device for closing a flexible container , with a welding device , a sensor device for acquiring a position of a part of the container to be closed and a control unit , wherein the closing device is designed to weld containers in the form of valve bags with filling valves as the part to be closed, and wherein the control unit is coupled with the sensor device and welding device , and, by actuating at least one movement device, is designed to place the welding device in a first position and a second position spaced apart from the latter on the part of the container to be closed, wherein the control unit is further designed to detect when at least the second of the two positions has been reached via the sensor device , and to actuate the welding device at the respective first and the second position to generate a weld seam on the container , wherein the first position is selected in such a way as to generate a first weld seam on a bag-side end of the filling valve , and the second position is selected in such a way as to generate a second weld seam on an outer end of the filling valve .
A fairlead that is intended to equip a towing device that can be installed on the deck of a ship and comprising a winch , a cable passing through the fairlead under the action of the winch , the fairlead comprising an open-section channel extending in a main direction for guiding the cable , characterized in that the fairlead comprises: • a movable bolt closing a section of the channel , • a force sensor that is situated in front of the bolt in one direction of the main direction and is configured to detect an external force, and • a trigger configured to open the bolt when a force exerted on the sensor and oriented along the main direction in the sense exceeds a predetermined force, and to close the bolt when this force ceases. • a movable bolt closing a section of the channel , • a force sensor that is situated in front of the bolt in one direction of the main direction and is configured to detect an external force, and • a trigger configured to open the bolt when a force exerted on the sensor and oriented along the main direction in the sense exceeds a predetermined force, and to close the bolt when this force ceases.
A biphenyl derivative compound of the following Formula 1, an optical isomer thereof or a pharmaceutically acceptable salt thereof: wherein L is -(CH 2 )-, -(C(=O))- or -(CHOH)-; and R 1 to R 4 are each independently hydroxy or methoxy. L is -(CH 2 )-, -(C(=O))- or -(CHOH)-; and R 1 to R 4 are each independently hydroxy or methoxy.
Light module of a motor vehicle comprising: - at least one first transverse row of light sources ; - at least one first one-piece primary optical element which has at least one first forming layer which comprises a transverse rear light input face for the light that is common to all the light sources of the first row , an upper face and/or a lower face for guiding the light by total internal reflection towards a transverse front output face ; - at least one bifocal imaging device which is designed to project an image of each light source , the imaging device having a first, transverse focusing plane which is arranged substantially coinciding with the light sources and a second, vertical focusing plane which is arranged substantially coinciding with the output face of the first forming layer ; characterized in that the light module comprises at least one second transverse row of light sources which is offset vertically relative to the first row , the first primary optical element comprising at least one second one-piece forming layer which is associated with said second row and which comprises a transverse rear input face for the light, common to all the light sources of the second row , and arranged in the first, transverse focusing plane , an upper face and/or a lower face for guiding the light by total internal reflection towards a transverse front output face which is arranged in the second, vertical focusing plane . - at least one first transverse row of light sources ; - at least one first one-piece primary optical element which has at least one first forming layer which comprises a transverse rear light input face for the light that is common to all the light sources of the first row , an upper face and/or a lower face for guiding the light by total internal reflection towards a transverse front output face ; - at least one bifocal imaging device which is designed to project an image of each light source , the imaging device having a first, transverse focusing plane which is arranged substantially coinciding with the light sources and a second, vertical focusing plane which is arranged substantially coinciding with the output face of the first forming layer ; characterized in that the light module comprises at least one second transverse row of light sources which is offset vertically relative to the first row , the first primary optical element comprising at least one second one-piece forming layer which is associated with said second row and which comprises a transverse rear input face for the light, common to all the light sources of the second row , and arranged in the first, transverse focusing plane , an upper face and/or a lower face for guiding the light by total internal reflection towards a transverse front output face which is arranged in the second, vertical focusing plane .
A rectifier diode replacement circuit having an anode end and a cathode end, comprising a rectifier diode circuit and a reverse bias cut-off drive circuit; the rectifier diode circuit comprises an energy storage capacitor (C), a low-voltage clock generator , a charge pump circuit , a bandgap reference circuit , a hysteresis comparator , a drive amplifier and a power MOS transistor (Q); the low-voltage clock generator is connected with both ends of the rectifier diode replacement circuit and adapted for detecting voltages at both ends of the rectifier diode replacement circuit and generating a clock signal to drive the charge pump circuit ; the charge pump circuit is connected with the low-voltage clock generator , and the hysteresis comparator , and adapted for detecting voltages at both ends of the rectifier diode replacement circuit, and adapted for storing charges into the energy storage capacitor (C) after being amplified; the rectifier diode circuit is adapted for outputting voltages stored on the energy storage capacitor (C) and a reference voltage output by the bandgap reference circuit , respectively, to the hysteresis comparator so as to be compared; the hysteresis comparator is connected with the drive amplifier , and adapted for outputting an on signal to be amplified by the drive amplifier , when the voltages stored on the energy storage capacitor are greater than the reference voltage output by the bandgap reference circuit ; the drive amplifier is connected with the gate of the power MOS transistor (Q) and adapted for then outputing the amplified signal to the power MOS transistor (Q) to drive the power MOS transistor (Q) to be on wherein the source of the power MOS transistor (Q) is connected to the anode end of the rectifier diode replacement circuit and the drain of the power MOS transistor (Q) is connected to the cathode end of the rectifier diode replacement circuit; characterized in that the reverse bias cut-off drive circuit is connected with both ends of the rectifier diode replacement circuit, and adapted for detecting the voltages at both ends of the rectifier diode replacement circuit, and for forming a charge discharge channel at a gate of the power MOS transistor (Q) to cut off the power MOS transistor (Q), when a cathode potential is greater than an anode potential.
Process of preparing a silicone rubber suspension, comprising following steps: 1) a step of preparing emulsion, comprising the components: a) 100 parts by mass of an organosiloxane with viscosity between 20mPa · s and 1,000 mPa· s at 25 °C, having at least two silicone atom-bonded hydroxyl groups in a molecule; b) 3.0 - 10.0 parts by mass of organoalkoxysilane or partially hydrolysate thereof; c) 2.0 - 10.0 parts by mass of alkyl silicate; d) 0.001 - 1.5 parts by mass of a surfactant; and e) 50 - 200 parts by mass of water; 2) a step of mixing the emulsion with following components: f) condensation reaction catalyst, g) 1.2 - 30.0 parts by mass of a surfactant; and h) 0 - 15 parts by mass of water. 1) a step of preparing emulsion, comprising the components: a) 100 parts by mass of an organosiloxane with viscosity between 20mPa · s and 1,000 mPa· s at 25 °C, having at least two silicone atom-bonded hydroxyl groups in a molecule; b) 3.0 - 10.0 parts by mass of organoalkoxysilane or partially hydrolysate thereof; c) 2.0 - 10.0 parts by mass of alkyl silicate; d) 0.001 - 1.5 parts by mass of a surfactant; and e) 50 - 200 parts by mass of water; a) 100 parts by mass of an organosiloxane with viscosity between 20mPa · s and 1,000 mPa· s at 25 °C, having at least two silicone atom-bonded hydroxyl groups in a molecule; b) 3.0 - 10.0 parts by mass of organoalkoxysilane or partially hydrolysate thereof; c) 2.0 - 10.0 parts by mass of alkyl silicate; d) 0.001 - 1.5 parts by mass of a surfactant; and e) 50 - 200 parts by mass of water; 2) a step of mixing the emulsion with following components: f) condensation reaction catalyst, g) 1.2 - 30.0 parts by mass of a surfactant; and h) 0 - 15 parts by mass of water. f) condensation reaction catalyst, g) 1.2 - 30.0 parts by mass of a surfactant; and h) 0 - 15 parts by mass of water.