mhurhangee/patent-ind-claim-en huggingface dataset:
A self-adjustable heat spreader system, comprising: a spring system (202-1) comprising one or more spring members and a thermally conductive block adapted to contact a circuit board component , wherein each spring member of the one or more spring members comprises a thermally conductive material; and a thermal expansion plate coupled to the one or more spring members , wherein the thermally conductive block is attached to the one or more spring members in a position between the thermal expansion plate and the circuit board component ; wherein the thermally conductive block , the one or more spring members , and the thermal expansion plate are configured to allow movement of the thermally conductive block with respect to the one or more spring members and tri-axial movement of the thermally conductive block with respect to the thermal expansion plate along three axes, when the thermally conductive block is pressed against the circuit board component and when the spring system (202-1) transitions from a first state to a compressed state; wherein the thermally conductive block and the spring system (202-1) are configured to transfer heat between the circuit board component and the thermal expansion plate . a spring system (202-1) comprising one or more spring members and a thermally conductive block adapted to contact a circuit board component , wherein each spring member of the one or more spring members comprises a thermally conductive material; and a thermal expansion plate coupled to the one or more spring members , wherein the thermally conductive block is attached to the one or more spring members in a position between the thermal expansion plate and the circuit board component ; wherein the thermally conductive block , the one or more spring members , and the thermal expansion plate are configured to allow movement of the thermally conductive block with respect to the one or more spring members and tri-axial movement of the thermally conductive block with respect to the thermal expansion plate along three axes, when the thermally conductive block is pressed against the circuit board component and when the spring system (202-1) transitions from a first state to a compressed state; wherein the thermally conductive block and the spring system (202-1) are configured to transfer heat between the circuit board component and the thermal expansion plate .
A system comprised of a floor processing device , a memory device and at least one accessory device for detachable connection with the floor processing device , wherein the floor processing device has a detecting device for detecting the type of accessory device currently connected with the floor processing device , a user interface for receiving an operating specification for an operating parameter of the floor processing device and/or the accessory device from a user, and a controller for controlling an operating activity of the floor processing device and/or accessory device according to the set operating parameter, characterised in that the controller is set up to store the last operating parameter used for a first operating activity together with information about the type of accessory device used while performing the first operating activity in the memory device and, after the accessory device has been disconnected from the floor processing device and the same accessory device has been reconnected with the floor processing device , to access the operating parameter stored in the memory device , and reset this operating parameter for a second operating activity of the floor processing device with this accessory device to be performed chronologically after the first operating activity.
A dishwasher, comprising: a tub having a wash space therein, and an open front; a door being configured to open and close the open front of the tub ; a dry air supply part comprising an air blowing fan , and a filter ; a memory ; and a processor configured to control an operation of the dishwasher , characterized in that the processor is configured to: accumulate operation time for which the air blowing fan operates and/or a number of times of a drying process based on operation of the air blowing fan , in the memory , and compare total operation time accumulated based on the operation of the air blowing fan with a predetermined first time and/or compare the number of times of the drying process with a number of predetermined times, wherein when the total accumulative operation time is greater than or equal to the predetermined first time and/or the number of times of the drying process is greater than or equal to the predetermined times, the processor is configured to output an optical signal and/or an acoustic signal for replacing the filter to a customer. a tub having a wash space therein, and an open front; a door being configured to open and close the open front of the tub ; a dry air supply part comprising an air blowing fan , and a filter ; a memory ; and a processor configured to control an operation of the dishwasher , characterized in that the processor is configured to: accumulate operation time for which the air blowing fan operates and/or a number of times of a drying process based on operation of the air blowing fan , in the memory , and compare total operation time accumulated based on the operation of the air blowing fan with a predetermined first time and/or compare the number of times of the drying process with a number of predetermined times, wherein when the total accumulative operation time is greater than or equal to the predetermined first time and/or the number of times of the drying process is greater than or equal to the predetermined times, the processor is configured to output an optical signal and/or an acoustic signal for replacing the filter to a customer. accumulate operation time for which the air blowing fan operates and/or a number of times of a drying process based on operation of the air blowing fan , in the memory , and compare total operation time accumulated based on the operation of the air blowing fan with a predetermined first time and/or compare the number of times of the drying process with a number of predetermined times, wherein when the total accumulative operation time is greater than or equal to the predetermined first time and/or the number of times of the drying process is greater than or equal to the predetermined times, the processor is configured to output an optical signal and/or an acoustic signal for replacing the filter to a customer.
A fluid dispenser device comprising a dispenser head provided with a dispenser orifice , an air expeller for generating a flow of air while the device is being actuated, and a reservoir containing a single dose of fluid, said reservoir including a proximal axial end and a distal axial end, and being mounted in removable manner in said dispenser head so that after the device has been actuated, the empty reservoir can be removed from said device and replaced by a new full reservoir, said air expeller being adapted to return to its rest position so as to enable a new actuation with said new full reservoir, said device being characterized in that said dispenser head includes a proximal perforator tip that is adapted to perforate said proximal axial end of said reservoir , and in that it includes a movable perforator member that is arranged to slide axially around said dispenser head between a loading position and an actuation position, said movable perforator member including a distal perforator tip that is adapted to perforate the distal axial end of said reservoir when said movable perforator member is moved into its actuation position.
A method for encapsulating a microelectronic device , disposed on a support substrate , with an encapsulation cover comprising the following successive steps: a) providing a support substrate , made of a first material, comprising a first main face on which a microelectronic device is disposed, and a second main face opposite the first main face , b) depositing a bonding layer , made of a second material, on the first face of the substrate , around the microelectronic device , c) positioning an encapsulation cover , made of a third material, comprising a first main face and a second main face , opposite the first main face , on the bonding layer , so as to fix the first main face of the encapsulation cover on the support substrate , and so as to encapsulate the microelectronic device , d) thinning, by chemical etching, the second main face of the support substrate and the second main face of the encapsulation cover to a thickness less than 200 μm, preferably, less than or equal to 100 μm and even more preferably less than 50 μm, the second main face of the support substrate and the second main face of the encapsulation cover are thinned simultaneously during step d). a) providing a support substrate , made of a first material, comprising a first main face on which a microelectronic device is disposed, and a second main face opposite the first main face , b) depositing a bonding layer , made of a second material, on the first face of the substrate , around the microelectronic device , c) positioning an encapsulation cover , made of a third material, comprising a first main face and a second main face , opposite the first main face , on the bonding layer , so as to fix the first main face of the encapsulation cover on the support substrate , and so as to encapsulate the microelectronic device , d) thinning, by chemical etching, the second main face of the support substrate and the second main face of the encapsulation cover to a thickness less than 200 μm, preferably, less than or equal to 100 μm and even more preferably less than 50 μm,
A retroreflective screen comprising a first film made of a transparent material, having a surface comprising a plurality of microprotrusions, each microprotrusion having a first surface, and second and third surfaces substantially orthogonal to each other and substantially orthogonal to the first surface, the first, second, and third surfaces of the microprotrusions joining at a same point and forming a trihedron, wherein the first, second, and third surfaces of each microprotrusion of the first film are coated with a reflective metallization, characterized in that the first surface of each microprotrusion is parallel to the mean plane of the screen.
A process improvement additive suitable for polymer processing, wherein this process improvement additive comprises a carrier polymer, a binding component and one or more fluoropolymers, characterised in that this process improvement additive further comprises one or more zeolites.
A method for detecting unexploded ordnance by characterizing a metallic interference mass (S) that lies concealed under a ground surface (BO), where at the ground surface (BO), a bore hole (B) is sunk close to a position (P) of the metallic interference mass (S) at least down to a depth (T) that corresponds to the position of the metallic interference mass (S) and electromagnetic pulses are transmitted via an excitation loop (Tx) into the ground around the bore hole (B) and a pulse response (A) is measured in a receiver unit (Rx), with the receiver unit (Rx) being lowered into the bore hole (B), wherein a pulse response (A) of the interference mass (S) with a chronological progression is detected and evaluated in the receiver unit (Rx) by means of a magnetic sensor or magnetometer (M), in all three spatial axes x, y, z in the bore hole (B), where close to the position (P) of the metallic interference mass (S), in order to arrive at clearer conclusions regarding its shape and orientation in the ground, at least three bore holes (B) are sunk, which form an equilateral triangle with one another and the position (P) of the metallic interference mass (S) is situated at the centroid of this triangle, where a chronological evaluation of magnetic reaction signals is carried out in the three spatial axes that are orthogonal to one another in order to arrive at clearer conclusions regarding a shape and orientation of the metallic interference mass (S) in the ground to distinguish between a piece of unexploded ordnance and a largely non-hazardous metal part.
A downhole system for completing a well , comprising: - a well tubular metal structure arranged in a borehole having a borehole pressure (P B ), the well tubular metal structure comprising an inner face and an inside having an inside pressure (P I ), an opening and an axial extension , and - a sliding sleeve having an outer face and being movable inside the well tubular metal structure and along the axial extension between a first position in which the sliding sleeve seals off the opening and a second position in which fluid communication between the borehole and the inside of the well tubular metal structure is allowed, characterised in that the sliding sleeve comprises a first sealing element arranged on the outer face on one side of the opening and a second sealing element arranged on the outer face on the other side of the opening in the first position, wherein a pressure-reducing mechanism is arranged in relation to the first sealing element for reducing a pressure exerted on the first sealing element while moving the sliding sleeve from the first position to the second position, and wherein the pressure-reducing mechanism is a labyrinth seal . - a well tubular metal structure arranged in a borehole having a borehole pressure (P B ), the well tubular metal structure comprising an inner face and an inside having an inside pressure (P I ), an opening and an axial extension , and - a sliding sleeve having an outer face and being movable inside the well tubular metal structure and along the axial extension between a first position in which the sliding sleeve seals off the opening and a second position in which fluid communication between the borehole and the inside of the well tubular metal structure is allowed, characterised in that the sliding sleeve comprises a first sealing element arranged on the outer face on one side of the opening and a second sealing element arranged on the outer face on the other side of the opening in the first position, wherein a pressure-reducing mechanism is arranged in relation to the first sealing element for reducing a pressure exerted on the first sealing element while moving the sliding sleeve from the first position to the second position, and wherein the pressure-reducing mechanism is a labyrinth seal .
A High Electron Mobility Transistor, HEMT, device , comprising: a semiconductor body including a heterojunction structure that forms a main conductive channel of the HEMT device and includes a channel layer and a barrier layer over the channel layer ; a dielectric layer on the semiconductor body ; a gate region extending in a trench through the dielectric layer and the barrier layer as far as the channel layer , the gate region including a gate electrode and a gate dielectric that extends between the gate electrode and the semiconductor body facing bottom and side walls of the trench ; a drain electrode , and a source electrode aligned to one another in a direction (X), wherein the drain electrode extends to the channel layer facing a first side of the gate region , and the source electrode extends to the channel layer facing a second side (8"), opposite to the first side in said direction (X), of the gate region, and an auxiliary channel layer , which extends over the heterojunction structure between the gate electrode and the drain electrode , in electrical contact with the drain electrode , is in direct contact with the source electrode and the second side (8") of the gate region, wherein the auxiliary channel layer is separated from the first side of the gate region by the dielectric layer so that it is not in direct contact with the first side of the gate region, is at a distance from the gate dielectric at the first side of the gate region, and forms a conductive path additional to the main conductive channel for charge carriers that flow between the source electrode and the drain electrode. a semiconductor body including a heterojunction structure that forms a main conductive channel of the HEMT device and includes a channel layer and a barrier layer over the channel layer ; a dielectric layer on the semiconductor body ; a gate region extending in a trench through the dielectric layer and the barrier layer as far as the channel layer , the gate region including a gate electrode and a gate dielectric that extends between the gate electrode and the semiconductor body facing bottom and side walls of the trench ; a drain electrode , and a source electrode aligned to one another in a direction (X), wherein the drain electrode extends to the channel layer facing a first side of the gate region , and the source electrode extends to the channel layer facing a second side (8"), opposite to the first side in said direction (X), of the gate region, and an auxiliary channel layer , which extends over the heterojunction structure between the gate electrode and the drain electrode , in electrical contact with the drain electrode , is in direct contact with the source electrode and the second side (8") of the gate region, wherein the auxiliary channel layer is separated from the first side of the gate region by the dielectric layer so that it is not in direct contact with the first side of the gate region, is at a distance from the gate dielectric at the first side of the gate region, and forms a conductive path additional to the main conductive channel for charge carriers that flow between the source electrode and the drain electrode.
A controller-implemented method of controlling the temperature of a liquid held within a plurality of reaction containers supported on a rotatable circular carousel rotatably mounted within a chamber of a thermal cycling apparatus for nucleic acid amplification, the apparatus comprising a fan and a vent , the method including: a) determining a sensed chamber temperature from a temperature sensor in the chamber ; b) determining an air temperature in the chamber using the sensed chamber temperature; c) determining a liquid temperature using the air temperature; and, d) selectively heating or cooling air in the chamber in accordance with the liquid temperature, characterized in that the temperature sensor is provided mounted to the wall of the chamber ; and the vent is covered by a vent flap . a) determining a sensed chamber temperature from a temperature sensor in the chamber ; b) determining an air temperature in the chamber using the sensed chamber temperature; c) determining a liquid temperature using the air temperature; and, d) selectively heating or cooling air in the chamber in accordance with the liquid temperature,
An apparatus for transporting one or more sample containers for sample evaluation, wherein the apparatus comprises: (a) a housing ; (b) a clamp insert , wherein the clamp insert is connectable to the housing and positionable within the housing , wherein the clamp insert is configured to selectively retain the one or more sample containers ; (c) a first hook formed in the housing and located at a first end of the apparatus; (d) a second hook formed in the housing and located at a second end of the apparatus ; and (e) a base formed in the housing , wherein the base comprises one or more engagement features for moving the apparatus and thereby transporting the one or more sample containers selectively retained within the clamp insert of the apparatus , wherein the clamp insert defines a plurality of spaces configured to receive the one or more sample containers , and wherein the clamp insert further comprises stop members configured to define a minimum spacing between the clamp insert and the housing and to contact front and rear portions of the housing . (a) a housing ; (b) a clamp insert , wherein the clamp insert is connectable to the housing and positionable within the housing , wherein the clamp insert is configured to selectively retain the one or more sample containers ; (c) a first hook formed in the housing and located at a first end of the apparatus; (d) a second hook formed in the housing and located at a second end of the apparatus ; and (e) a base formed in the housing , wherein the base comprises one or more engagement features for moving the apparatus and thereby transporting the one or more sample containers selectively retained within the clamp insert of the apparatus , wherein the clamp insert defines a plurality of spaces configured to receive the one or more sample containers , and wherein the clamp insert further comprises stop members configured to define a minimum spacing between the clamp insert and the housing and to contact front and rear portions of the housing .
A robot system , comprising: a robot comprising a plurality of motion axes; a detector configured to detect an external force acting on the robot ; and a robot controller configured to control a motion of the robot , the robot controller comprising a motion controller configured to: when the external force detected by the detector satisfies a first condition, execute a backward withdrawal mode of causing the robot to withdraw by following, in a backward direction, a motion track that the robot followed; characterized by when an execution situation of the backward withdrawal mode satisfies a second condition, execute an external-force reduction withdrawal mode of causing the robot to withdraw in a direction in which the external force reduces. a robot comprising a plurality of motion axes; a detector configured to detect an external force acting on the robot ; and a robot controller configured to control a motion of the robot , the robot controller comprising a motion controller configured to: when the external force detected by the detector satisfies a first condition, execute a backward withdrawal mode of causing the robot to withdraw by following, in a backward direction, a motion track that the robot followed; characterized by when an execution situation of the backward withdrawal mode satisfies a second condition, execute an external-force reduction withdrawal mode of causing the robot to withdraw in a direction in which the external force reduces. when the external force detected by the detector satisfies a first condition, execute a backward withdrawal mode of causing the robot to withdraw by following, in a backward direction, a motion track that the robot followed; characterized by when an execution situation of the backward withdrawal mode satisfies a second condition, execute an external-force reduction withdrawal mode of causing the robot to withdraw in a direction in which the external force reduces.
Ion-emitting body (3, 3', 3", 3′′′) for a device for contraception, comprising: at least one through hole with at least two through hole openings wherein an outer surface (32, 32', 32", 32′′′) of the ion-emitting body (3, 3', 3", 3′′′) extending from one of the through hole openings to the other one of the through hole openings has no outwardly facing edge, characterized in that the through hole has at least two different diameters (d1, d2). at least one through hole with at least two through hole openings wherein an outer surface (32, 32', 32", 32′′′) of the ion-emitting body (3, 3', 3", 3′′′) extending from one of the through hole openings to the other one of the through hole openings has no outwardly facing edge, characterized in that the through hole has at least two different diameters (d1, d2).