mhurhangee/patent-ind-claim-en huggingface dataset:
Electrical door strike , which in use is seated in a frame by a fire door, comprising a door strike house , a movable strike keeper , and a locking mechanism between said door strike house and said movable strike keeper , said locking mechanism further comprising: a vertical cavity in the electrical door strike house , a vertical cavity in the strike keeper which is in line with the cavity in the electrical door strike house when the strike keeper is in the closed position and together form an elongated cavity, wherein the two cavities have approximately the same vertical extent, characterized by at least one locking object located at the bottom of each of the cavities in the electrical door strike house and the strike keeper , respectively; wherein the locking objects are secured with fastening means that releases the locking objects when the temperature exceeds a threshold temperature, wherein the two locking objects have a vertical extension which is in total greater than the length of a cavity , so that the upper locking object blocks movement between the electrical door strike house and the strike keeper when the locking objects are released and allowing the upper locking object to fall into a locking position if the temperature exceeds the threshold temperature. a vertical cavity in the electrical door strike house , a vertical cavity in the strike keeper which is in line with the cavity in the electrical door strike house when the strike keeper is in the closed position and together form an elongated cavity, wherein the two cavities have approximately the same vertical extent, characterized by at least one locking object located at the bottom of each of the cavities in the electrical door strike house and the strike keeper , respectively; wherein the locking objects are secured with fastening means that releases the locking objects when the temperature exceeds a threshold temperature, wherein the two locking objects have a vertical extension which is in total greater than the length of a cavity , so that the upper locking object blocks movement between the electrical door strike house and the strike keeper when the locking objects are released and allowing the upper locking object to fall into a locking position if the temperature exceeds the threshold temperature.
A spray drying process for forming a composition providing an active and a matrix material, comprising: a) forming a suspension at a temperature T1 which is below the ambient-pressure boiling point of the solvents, said suspension comprising said active, said matrix material, a first solvent, and a second solvent; b) heating said suspension prior to feeding into the atomizing nozzle in a heat exchanger to a temperature T2, which is at least 40°C greater than T1, and a pressure P1 greater than the vapor pressure of the solvents at temperature T2, and wherein the residence time of the suspension in said heat exchanger is less than 10 minutes, thereby preventing unwanted vaporization/boiling of the solvents in the spray solution, such that each of said active and said matrix material dissolves so as to form a spray solution; c) atomizing said spray solution to form droplets; d) drying said droplets by removing at least a portion of said first solvent, and at least a portion of said second solvent to form solid particles; and e) collecting said solid particles, said solid particles having active-rich domains and active-poor domains, the matrix material having a solubility in the first solvent at a temperature T2 that is greater than the solubility of the matrix material in the second solvent at the temperature T2, the active having a solubility in the second solvent at the temperature T2 that is greater than the solubility of the active in the first solvent at the temperature T2, and the ambient-pressure boiling point of the first solvent being greater than the ambient-pressure boiling point of the second solvent. a) forming a suspension at a temperature T1 which is below the ambient-pressure boiling point of the solvents, said suspension comprising said active, said matrix material, a first solvent, and a second solvent; b) heating said suspension prior to feeding into the atomizing nozzle in a heat exchanger to a temperature T2, which is at least 40°C greater than T1, and a pressure P1 greater than the vapor pressure of the solvents at temperature T2, and wherein the residence time of the suspension in said heat exchanger is less than 10 minutes, thereby preventing unwanted vaporization/boiling of the solvents in the spray solution, such that each of said active and said matrix material dissolves so as to form a spray solution; c) atomizing said spray solution to form droplets; d) drying said droplets by removing at least a portion of said first solvent, and at least a portion of said second solvent to form solid particles; and e) collecting said solid particles, said solid particles having active-rich domains and active-poor domains, the matrix material having a solubility in the first solvent at a temperature T2 that is greater than the solubility of the matrix material in the second solvent at the temperature T2, the active having a solubility in the second solvent at the temperature T2 that is greater than the solubility of the active in the first solvent at the temperature T2, and the ambient-pressure boiling point of the first solvent being greater than the ambient-pressure boiling point of the second solvent.
An electric power tool comprising: a brushless motor including a stator and a rotor, the stator having a plurality of windings, the rotor being rotatable relative to the stator, an induced voltage being generated from the plurality of windings upon rotations of the rotor; a rectifier circuit configured to rectify an AC voltage; a smoothing capacitor configured to produce from the rectified voltage a pulsating voltage in which ripples remain; an inverter circuit configured to sequentially switch the plurality of windings for energization by a capacitor voltage developed across the smoothing capacitor; a receiving unit configured to receive a drive instruction for driving the brushless motor by a user; and a control unit configured to control the inverter circuit, characterized in that the smoothing capacitor has such a capacity that a first period of time for which a current flows through the brushless motor and a second period of time for which the current does not flow through the brushless motor alternately take place, the current flowing through the brushless motor for the first period of time being caused by the capacitor voltage exceeding the induced voltage resulting from a variation in the capacitor voltage accompanying a variation in the rectified voltage, the current not flowing through the brushless motor for the second period of time being caused by a balance of the capacitor voltage with the induced voltage, that the control unit is configured to control the inverter circuit such that the inverter circuit performs the sequential switching during both the first period of time and the second period of time insofar as the drive instruction is being received at the receiving unit, wherein the control unit is further configured to control the inverter circuit to halt the sequential switching when the current flowing through the brushless motor exceeds an overcurrent threshold value regardless of the drive instruction being received at the receiving unit.
Closure plug for containers containing medical or pharmaceutical substances, such as infusion bottles, transfusion bottles, containers containing vaccination agents or diagnostic sample containers, comprising a rubber-like material such as rubber, synthetic rubber or TPE, with an upper side which is exposed in use or overlapped by an overcap and an underside which co-operates in a sealing manner with the container , wherein further the upper side has a rib-like structure (S) which surrounds a central piercing region , wherein the structure (S) is designed to be continuous in a line-like manner with respect to surrounding the piercing region and has two ends which are free in the circumferential direction, which leave between them an access to the piercing region unimpeded by the structure (S), wherein the line-like structure (S) has two or more freely extending structural branches with respect to its circumferential extension to the piercing region , which attach directly to the line-like circumferential structure without forming a gap between the structural branch and the line-like structure (S) and/or in that the line-like structure (S) surrounds the piercing region in a closed manner over more than half up to 270° or 320° of a piercing region circumference .
An apparatus , including an integrated microfluidic card , the integrated microfluidic card comprising: a board assembly with channels ; a plurality of modular modules in microfluidic connection with one another and each configured and arranged to detect nucleic acid, the plurality of modular modules including: a reagent module configured and arranged to contain and deliver reagents to other of the plurality of modular modules; a lysis module configured and arranged to carry out lysis on a sample input to the integrated microfluidic card; a purification module configured and arranged to purify targets in the sample from other material in the sample; a polymerase chain reaction (PCR) module configured and arranged to amplify and label the targets; and a detection module configured and arranged to hybridize the amplified and labeled-targets for detection of the amplified and labeled targets; an input chamber configured and arranged to receive the sample and introduce the sample to the channels; a plurality of ports and valves configured and arranged to control a flow of fluid within fluidic chambers of the plurality of modular modules and the channels, the fluid including the sample and the reagents; and at least one vent configured and arranged to remove bubbles from the channels. a board assembly with channels ; a plurality of modular modules in microfluidic connection with one another and each configured and arranged to detect nucleic acid, the plurality of modular modules including: a reagent module configured and arranged to contain and deliver reagents to other of the plurality of modular modules; a lysis module configured and arranged to carry out lysis on a sample input to the integrated microfluidic card; a purification module configured and arranged to purify targets in the sample from other material in the sample; a polymerase chain reaction (PCR) module configured and arranged to amplify and label the targets; and a detection module configured and arranged to hybridize the amplified and labeled-targets for detection of the amplified and labeled targets; a reagent module configured and arranged to contain and deliver reagents to other of the plurality of modular modules; a lysis module configured and arranged to carry out lysis on a sample input to the integrated microfluidic card; a purification module configured and arranged to purify targets in the sample from other material in the sample; a polymerase chain reaction (PCR) module configured and arranged to amplify and label the targets; and a detection module configured and arranged to hybridize the amplified and labeled-targets for detection of the amplified and labeled targets; an input chamber configured and arranged to receive the sample and introduce the sample to the channels; a plurality of ports and valves configured and arranged to control a flow of fluid within fluidic chambers of the plurality of modular modules and the channels, the fluid including the sample and the reagents; and at least one vent configured and arranged to remove bubbles from the channels.
An antenna including only two radiators , the antenna comprising: a substrate ; a ground ; a first radiator located on a first surface of the substrate , the first radiator having a first radiator internal edge and a first radiator external edge, the first radiator being shorted to the ground by a first shorting wall along the first radiator internal edge or the first radiator external edge; a second radiator located on the first surface of the substrate , the second radiator having a second radiator internal edge and a second radiator external edge, the second radiator being shorted to the ground by a second shorting wall along the second radiator internal edge or the second radiator external edge, and wherein the first radiator is enclosed inside a cavity formed by the second shorting wall and the first radiator is configured to operate as a cavity backed antenna; a feed network comprising two or more first feed posts that extend through the substrate and contact the first radiator , the feed network further comprising two or more second feed posts that extend through the substrate and contact the second radiator . a substrate ; a ground ; a first radiator located on a first surface of the substrate , the first radiator having a first radiator internal edge and a first radiator external edge, the first radiator being shorted to the ground by a first shorting wall along the first radiator internal edge or the first radiator external edge; a second radiator located on the first surface of the substrate , the second radiator having a second radiator internal edge and a second radiator external edge, the second radiator being shorted to the ground by a second shorting wall along the second radiator internal edge or the second radiator external edge, and wherein the first radiator is enclosed inside a cavity formed by the second shorting wall and the first radiator is configured to operate as a cavity backed antenna; a feed network comprising two or more first feed posts that extend through the substrate and contact the first radiator , the feed network further comprising two or more second feed posts that extend through the substrate and contact the second radiator .
Rotor for a waste grinding apparatus , comprising a central body defining at least one radial vane , provided, at its end distal relative to the rotation axis ("S") of the rotor , with a hammerhead in which a first, knocker impact surface adapted to operate when the rotor rotates in a first, clockwise or counter-clockwise direction, and a second, wedge-shaped impact surface adapted to operate when the rotor rotates in a second direction opposite to the first direction, are defined.
An imaging and pulse detection pixel comprising: an optical detection device connected directly to a first and second transistor only; a pulse detection circuit that operates on a first signal for detection of a pulse, the first signal being read out from the first transistor and an imaging circuit that operates on a second signal for generation of an image the second signal being read out from the second transistor , wherein a terminal of the optical detection device is directly connected to only a gate terminal of the first transistor and a non-gate terminal of the second transistor ; wherein the optical detection device and the first and second transistors are included in a portion of the imaging and pulse detection pixel that is shared by the pulse detection circuit and the imaging circuit ; and wherein the first and second signals are provided to a remaining portion of the pulse detection circuit and imaging circuit , respectively, wherein the remaining portions of the imaging circuit and the pulse detection circuit are not included in the shared portion . an optical detection device connected directly to a first and second transistor only; a pulse detection circuit that operates on a first signal for detection of a pulse, the first signal being read out from the first transistor and an imaging circuit that operates on a second signal for generation of an image the second signal being read out from the second transistor , wherein a terminal of the optical detection device is directly connected to only a gate terminal of the first transistor and a non-gate terminal of the second transistor ; wherein the optical detection device and the first and second transistors are included in a portion of the imaging and pulse detection pixel that is shared by the pulse detection circuit and the imaging circuit ; and wherein the first and second signals are provided to a remaining portion of the pulse detection circuit and imaging circuit , respectively, wherein the remaining portions of the imaging circuit and the pulse detection circuit are not included in the shared portion .
Sealing arrangement of a fluidic system for operation with cryogenic media, which sealing arrangement comprises a sealing ring , which sealing ring is used to connect a first system component to a second system component , which sealing ring further has a first sealing surface for sealing with said first system component and said sealing ring has a second sealing surface for sealing with said second system component , said first sealing surface and said second sealing surface of said sealing ring being designed such that in the region of the sealing surfaces , said first and second system components are arranged radially within said sealing ring in a sectional plane parallel to the direction of contraction, and that, when subjected to cold, said sealing ring will undergo a higher degree of thermal contraction than said first system component and said second system component , that the cross section of said sealing ring is designed in the manner of an open hollow profile, with a radially inner wall being in some areas opposite a continuous outer wall, resulting in a cavity being formed between said inner and outer walls, with a first cavity being formed in a wall forming a first sealing surface and a second cavity being formed in the wall forming a second sealing surface , characterized in that a spring ring is inserted into each of the cavities formed, wherein said first system component is a first valve component and said second system component is a second valve component , with said sealing ring having a recess in its radially outer wall.
A receiver for a Pulsed Eddy Current, PEC, system configured to detect a changing electromagnetic field generated by eddy currents induced in an object of an electrically conductive material, the receiver comprising: an electrically conductive receiver coil ; a high-voltage receiver channel, HVRC ; a low-voltage receiver channel, LVRC ; and an over-voltage protection, OVP, connected between the receiver coil and the LVRC , characterised in that the OVP comprises: a bias circuit (B); a diode (D) connected between the receiver coil and the bias circuit (B); and a capacitor (C) connected between the bias circuit (B) and the LVRC ; wherein the bias circuit (B) is configured for providing a bias threshold for forward biasing or reverse biasing the diode (D) depending on a voltage induced in the receiver coil ; and wherein the capacitor (C) is configured for preventing the LVRC from seeing a bias voltage or current of the bias circuit (B). an electrically conductive receiver coil ; a high-voltage receiver channel, HVRC ; a low-voltage receiver channel, LVRC ; and an over-voltage protection, OVP, connected between the receiver coil and the LVRC , characterised in that the OVP comprises: a bias circuit (B); a diode (D) connected between the receiver coil and the bias circuit (B); and a capacitor (C) connected between the bias circuit (B) and the LVRC ; wherein the bias circuit (B) is configured for providing a bias threshold for forward biasing or reverse biasing the diode (D) depending on a voltage induced in the receiver coil ; and wherein the capacitor (C) is configured for preventing the LVRC from seeing a bias voltage or current of the bias circuit (B). a bias circuit (B); a diode (D) connected between the receiver coil and the bias circuit (B); and a capacitor (C) connected between the bias circuit (B) and the LVRC ; wherein the bias circuit (B) is configured for providing a bias threshold for forward biasing or reverse biasing the diode (D) depending on a voltage induced in the receiver coil ; and wherein the capacitor (C) is configured for preventing the LVRC from seeing a bias voltage or current of the bias circuit (B).
A computing device for generating a platform manifest, the computing device comprising: a platform description module to (i) read a platform model number from an in-field programmable, IFP, fuse and a platform description indicative of hardware components of a target computing device from one or more trusted I/O specific entries of an ACPI table of the computing device , and (ii) generate a platform manifest based on the platform description, wherein the platform manifest is indicative of one or more hardware components of the target computing device that are capable of trusted I/O; and a binding module to bind the platform manifest to the target computing device , wherein to bind the platform manifest comprises to burn a unique platform model number into the IFP fuse. a platform description module to (i) read a platform model number from an in-field programmable, IFP, fuse and a platform description indicative of hardware components of a target computing device from one or more trusted I/O specific entries of an ACPI table of the computing device , and (ii) generate a platform manifest based on the platform description, wherein the platform manifest is indicative of one or more hardware components of the target computing device that are capable of trusted I/O; and (i) read a platform model number from an in-field programmable, IFP, fuse and a platform description indicative of hardware components of a target computing device from one or more trusted I/O specific entries of an ACPI table of the computing device , and (ii) generate a platform manifest based on the platform description, wherein the platform manifest is indicative of one or more hardware components of the target computing device that are capable of trusted I/O; and a binding module to bind the platform manifest to the target computing device , wherein to bind the platform manifest comprises to burn a unique platform model number into the IFP fuse.