mhurhangee/patent-ind-claim-en huggingface dataset:
A ventilation device for ventilation of a printed circuit board in or for a computer, wherein the ventilation device is designed to generate a first cooling air stream by means of a first blower and a second cooling air stream by means of a second blower , wherein the first cooling air stream and the second cooling air stream pass through a common ventilation layer (BL) perpendicular to the air stream boundary plane (L) on different sides of an air stream boundary plane (L), preferably parallel to the air stream boundary plane (L), wherein the delivery directions of the first blower and the second blower are perpendicular to the air stream boundary plane (L), wherein the ventilation device is designed to be mountable in such a way that the air stream boundary plane (L) coincides with a center plane of the printed circuit board , characterized in that the ventilation device comprises a housing with a ventilation side , which defines the ventilation layer (BL) and toward which the housing is at least partially open, and a mounting plate , which divides the ventilation side and defines the air stream boundary plane (L), wherein the mounting plate supports at least two blowers or is designed to accommodate at least two blowers in such a manner that through each blower an air stream (4, 6; 4, 7) is delivered or can be delivered through a respective opening in the mounting plate , wherein each of the blowers is assigned to a respective air guide chamber that is open toward the ventilation side and is closed or substantially closed on all other sides except for the respective opening of the mounting plate , that the blowers are provided on different sides of the mounting plate , and that each air guide chamber of one of the blowers on its side of the mounting plate is divided off from an area of another of the blowers , wherein for the division in each case particularly a partition is provided, which preferably extends perpendicularly on the mounting plate and particularly preferably at an angle to the ventilation side (1 a).
A terminal apparatus (100-2) capable of communicating with a base station, the terminal apparatus comprising: an acquisition unit configured to acquire radio resource information related to a radio resource usable for device-to-device communication not via the base station, of radio resources controllable by the base station; characterized by a determination unit configured to determine a size of data to be transmitted and received in the device-to-device communication on the basis of the radio resource information and whether or not the device-to-device communication is a resending. an acquisition unit configured to acquire radio resource information related to a radio resource usable for device-to-device communication not via the base station, of radio resources controllable by the base station; characterized by a determination unit configured to determine a size of data to be transmitted and received in the device-to-device communication on the basis of the radio resource information and whether or not the device-to-device communication is a resending.
A wire formed from an improved 8000-series aluminum alloy comprising, by weight: about 0.30% to about 0.80% iron; about 0.10% to about 0.3% copper; 0.050% or less magnesium; 0.0010% to 0.040% boron; 0.10% or less silicon; 0.050% or less zinc about 0.001% to about 0.1% of a rare earth element selected from one or more of erbium and ytterbium, and 0.030% or less of each other element with a total of less than 0.10% of each other element, the balance being aluminum, wherein the improved 8000-series aluminum alloy is an AA8030 aluminum alloy. about 0.30% to about 0.80% iron; about 0.10% to about 0.3% copper; 0.050% or less magnesium; 0.0010% to 0.040% boron; 0.10% or less silicon; 0.050% or less zinc about 0.001% to about 0.1% of a rare earth element selected from one or more of erbium and ytterbium, and 0.030% or less of each other element with a total of less than 0.10% of each other element, the balance being aluminum,
A time domain frame error concealment, FEC, apparatus comprising: at least one processor configured to: check whether a current frame is a good frame, in a time domain signal transformed from a frequency domain signal; check whether a previous frame is either a burst error frame or a random error frame, when the current frame is a good frame; select one mode from among a plurality of modes associated with smoothing, when the current frame is checked as a good frame after a burst error frame or a good frame after a random error frame; and apply a different error concealment processing to the current frame, based on the selected mode, wherein the plurality of modes include a first mode when the current frame is a good frame after a random error frame, and a second mode when the current frame is a good frame after a burst error frame, wherein the first mode comprises a smoothing process, and the second mode comprises a repetition process, scaling process, a first smoothing process and a second smoothing process. check whether a current frame is a good frame, in a time domain signal transformed from a frequency domain signal; check whether a previous frame is either a burst error frame or a random error frame, when the current frame is a good frame; select one mode from among a plurality of modes associated with smoothing, when the current frame is checked as a good frame after a burst error frame or a good frame after a random error frame; and apply a different error concealment processing to the current frame, based on the selected mode, wherein the plurality of modes include a first mode when the current frame is a good frame after a random error frame, and a second mode when the current frame is a good frame after a burst error frame, wherein the first mode comprises a smoothing process, and the second mode comprises a repetition process, scaling process, a first smoothing process and a second smoothing process.
A light detection device , comprising: a light detection unit including at least one avalanche photodiode , a plurality of temperature compensation diodes configured to provide temperature compensation for a gain of the at least one avalanche photodiode , and a terminal electrically connecting the at least one avalanche photodiode and the plurality of temperature compensation diodes in parallel with each other, characterized in that the light detection unit has a light detection region in which the at least one avalanche photodiode is provided, a first temperature detection region which is located around the light detection region and in which at least one of the plurality of temperature compensation diodes is provided, and a second temperature detection region which is located around the light detection region and in which the rest of the plurality of temperature compensation diodes excluding the at least one temperature compensation diode is provided, and the light detection region is interposed between the first temperature detection region and the second temperature detection region . a light detection unit including at least one avalanche photodiode , a plurality of temperature compensation diodes configured to provide temperature compensation for a gain of the at least one avalanche photodiode , and a terminal electrically connecting the at least one avalanche photodiode and the plurality of temperature compensation diodes in parallel with each other, characterized in that the light detection unit has a light detection region in which the at least one avalanche photodiode is provided, a first temperature detection region which is located around the light detection region and in which at least one of the plurality of temperature compensation diodes is provided, and a second temperature detection region which is located around the light detection region and in which the rest of the plurality of temperature compensation diodes excluding the at least one temperature compensation diode is provided, and the light detection region is interposed between the first temperature detection region and the second temperature detection region .
Locking device , in particular a multi-point locking means , for a door or a window, having a front plate extending in an axial direction , a main lock and a secondary lock , the main lock and the secondary lock being fastened to the front plate and being coupled to one another by means of a connecting rod so that the secondary lock can be actuated by the main lock at least in the opening direction, characterized in that a connecting rod protection apparatus is provided for protecting the connecting rod , the connecting rod protection apparatus having a protective tube which extends along the front plate , is fastened to the front plate , is made of steel and has a rectangular cross section, the connecting rod being arranged in the protective tube and the protective tube surrounding the connecting rod to the outside.
A self-propelled device (300; 800; 1400) comprising: a drive system (301; 890) comprising one or more motors ; a spherical housing that contains the drive system; a biasing mechanism including a spring , the spring being positioned to bias the drive system; a control system ; wherein the spring is coupled to the drive system at a first end, and includes a spring end that extends in a direction that is opposite to the first end to contact an inner surface of the spherical housing ; wherein the biasing mechanism biases the spring end against the inner surface of the spherical housing to actively force the drive system to continuously engage the inner surface of the spherical housing and cause the spherical housing to move; wherein the self-propelled device is adapted to: move in accordance with a three-dimensional reference frame, receive control input (885; 1415) from another device based on a two-dimensional reference frame, and control movement of the self-propelled device about three axes of the three-dimensional reference frame, wherein the self-propelled device maintains an internal frame of reference about the three axes, and wherein the control system uses sensor input provided by an inertial measurement unit to independently determine the three-dimensional reference frame for controlling the drive system. a drive system (301; 890) comprising one or more motors ; a spherical housing that contains the drive system; a biasing mechanism including a spring , the spring being positioned to bias the drive system; a control system ; wherein the spring is coupled to the drive system at a first end, and includes a spring end that extends in a direction that is opposite to the first end to contact an inner surface of the spherical housing ; wherein the biasing mechanism biases the spring end against the inner surface of the spherical housing to actively force the drive system to continuously engage the inner surface of the spherical housing and cause the spherical housing to move; wherein the self-propelled device is adapted to: move in accordance with a three-dimensional reference frame, receive control input (885; 1415) from another device based on a two-dimensional reference frame, and control movement of the self-propelled device about three axes of the three-dimensional reference frame, wherein the self-propelled device maintains an internal frame of reference about the three axes, and wherein the control system uses sensor input provided by an inertial measurement unit move in accordance with a three-dimensional reference frame, receive control input (885; 1415) from another device based on a two-dimensional reference frame, and control movement of the self-propelled device about three axes of the three-dimensional reference frame, wherein the self-propelled device maintains an internal frame of reference about the three axes, and wherein the control system uses sensor input provided by an inertial measurement unit wherein the self-propelled device maintains an internal frame of reference about the three axes, and wherein the control system uses sensor input provided by an inertial measurement unit
Laser pulse detector device being configured for determining a temporal relationship of a first laser pulse (A) and a second laser pulse (B), comprising - a beam combiner device being arranged for overlapping the first and second laser pulses (A, B) on a common beam path , - a non-linear crystal device being arranged for creating a first signal pulse (C) and a second signal pulse (D) by optically non-linear interactions of the first and second laser pulses (A, B) along the common beam path , wherein an intensity difference of the first and second signal pulses (C, D) depends on the temporal relationship of the first and second laser pulses (A, B), wherein the first and second signal pulses (C, D) have different spectral properties and a centre wavelength of the first signal pulse (C) differs from a centre wavelength of the second signal pulse (D), - a sensor device including two sensor units each being arranged in a different sensor beam path for detecting one of the first and second signal pulses (C, D), wherein the sensor device is adapted for providing a sensor signal output determined by the intensity difference of the first and second signal pulses (C, D), and - a spectrally selective beam separator device is arranged between the non-linear crystal device and the two sensor units of the sensor device , wherein - the spectrally selective beam separator device is arranged for spectrally separating the first and second signal pulses (C, D) in dependency on the centre wavelengths thereof and directing the spectrally separated first and second signal pulses onto the different sensor beam paths . - a beam combiner device being arranged for overlapping the first and second laser pulses (A, B) on a common beam path , - a non-linear crystal device being arranged for creating a first signal pulse (C) and a second signal pulse (D) by optically non-linear interactions of the first and second laser pulses (A, B) along the common beam path , wherein an intensity difference of the first and second signal pulses (C, D) depends on the temporal relationship of the first and second laser pulses (A, B), wherein the first and second signal pulses (C, D) have different spectral properties and a centre wavelength of the first signal pulse (C) differs from a centre wavelength of the second signal pulse (D), - a sensor device including two sensor units each being arranged in a different sensor beam path for detecting one of the first and second signal pulses (C, D), wherein the sensor device is adapted for providing a sensor signal output determined by the intensity difference of the first and second signal pulses (C, D), and - a spectrally selective beam separator device is arranged between the non-linear crystal device and the two sensor units of the sensor device , wherein - the spectrally selective beam separator device is arranged for spectrally separating the first and second signal pulses (C, D) in dependency on the centre wavelengths thereof and directing the spectrally separated first and second signal pulses onto the different sensor beam paths .
A data downloading method, characterized in that the downloading method comprises: obtaining (S101, S20 1), by a terminal, first information pre-installed in the terminal, wherein the first information comprises at least one networking profile; obtaining (S102, S202), by the terminal, information about to-be-downloaded data, wherein the information about the to-be-downloaded data comprises an identifier of the to-be-downloaded data; determining (S103, S203), by the terminal, a first networking profile based on the identifier of the to-be-downloaded data, wherein the first networking profile is comprised in the at least one networking profile, and the first networking profile is used by the terminal for networking; sending (S104, S204), by the terminal, a first message to a server, wherein the first message comprises the identifier of the to-be-downloaded data; and receiving (S105, S205), by the terminal, a second message sent by the server, wherein the second message comprises data corresponding to the identifier of the to-be-downloaded data. obtaining (S101, S20 1), by a terminal, first information pre-installed in the terminal, wherein the first information comprises at least one networking profile; obtaining (S102, S202), by the terminal, information about to-be-downloaded data, wherein the information about the to-be-downloaded data comprises an identifier of the to-be-downloaded data; determining (S103, S203), by the terminal, a first networking profile based on the identifier of the to-be-downloaded data, wherein the first networking profile is comprised in the at least one networking profile, and the first networking profile is used by the terminal for networking; sending (S104, S204), by the terminal, a first message to a server, wherein the first message comprises the identifier of the to-be-downloaded data; and receiving (S105, S205), by the terminal, a second message sent by the server, wherein the second message comprises data corresponding to the identifier of the to-be-downloaded data.
A polyamide pellet comprising a polyamide including diamine units and dicarboxylic acid units, 60 to 100% by mole of the diamine units being derived from m-xylylenediamine, wherein the polyamide pellet has only one melting point peak, and wherein a spherulite density of a skin portion of the pellet being 40,000 to 250,000/mm 2 , and the spherulite density is measured as follows: a polyamide pellet is cut perpendicularly to the axis direction using a microtome to expose a cross section at the center in the axis direction of the pellet as a smooth surface to prepare a sample in a block shape, and the sample obtained is put in a 10 wt% aqueous phosphorus/tungstic acid solution to stain the sample at 80°C for 8 hours; then, using an ion milling apparatus, the smooth surface is irradiated with an ion beam under conditions of an accelerated voltage of 2.5 kV, a discharge voltage of 1.5 kV, a processing time of 6 min, an irradiation angle of 30 degrees, and an eccentricity of 1.5 mm to form a damage pattern due to a morphology on the surface of the sample, and using a scanning electron microscope, the surface is observed at a magnification of 1,000; the damage pattern due to crystal is determined from an image obtained and the number of spherulites in arbitrary area of 50 μm square in each of the skin portion and the core portion is counted, and the procedure is repeated three times, whereby the spherulites density is measured; in the above measurement, a part in which 70% or more of the circumference thereof is surrounded by a line formed by the damage pattern is counted as one spherulite.
A water tap assembly comprising a water tap ; a water supply inlet on the water tap that is connected to a water supply; a boiler unit that is fed from the water supply inlet and that returns water to the water tap ; and a tap outlet on the water tap that is fed from the water supply inlet and, separately, from the boiler unit; and a flow regulator for regulating the flow of water through the water tap from the water supply inlet to the water tap outlet ; wherein the tap assembly further comprises a beverage making section on the water tap, the beverage making section having: an inlet a cavity section having a sealable access aperture therein; and an outlet ; wherein the inlet is in fluid communication with the outlet via the cavity section ; and wherein the sealable access aperture provides access to the cavity to allow the insertion or removal of beverage ingredients; and wherein the cavity section of the beverage making section is fed from the boiler unit; characterised in that the water tap comprises a first conduit connecting the water supply inlet to the tap outlet and a second conduit connecting the water returned from the boiler unit to the tap outlet , and wherein the second conduit is contained within the first conduit. a water tap ; a water supply inlet on the water tap that is connected to a water supply; a boiler unit that is fed from the water supply inlet and that returns water to the water tap ; and a tap outlet on the water tap that is fed from the water supply inlet and, separately, from the boiler unit; and a flow regulator for regulating the flow of water through the water tap from the water supply inlet to the water tap outlet ; an outlet ; wherein the inlet is in fluid communication with the outlet via the cavity section ; and wherein the sealable access aperture provides access to the cavity to allow the insertion or removal of beverage ingredients; and wherein the cavity section of the beverage making section is fed from the boiler unit;
A pressure sensitive adhesive composition comprising an acrylic resin, a multi-functional cross-linker and a photopolymerizable compound, the acrylic resin comprising a (meth)acrylic acid ester monomer; and a cross-linkable monomer as polymerized units, the acrylic resin having a weight average molecular weight of 800,000 or less as measured according to Measurement Method 1 described herein, the multi-functional cross-linker being selected from an isocyanate cross-linker, an epoxy cross-linker, an aziridine cross-linker and a metal chelate cross-linker, the photopolymerizable compound being a multi-functional acrylate that is at least trifunctional and having a molecular weight of less than 1,000, wherein after hardening, the composition comprises an interpenetrating polymer network structure having said acrylic resin in a cross-linked state, and has a peel force to a TAC sheet of 8 to 40 gf/inch, (0.003 to 0.015 N/mm) as measured at a peel angle of 180° and a peel rate of 0.3 m/min according to Measurement Method 3 described herein, and a peel force to a TAC sheet of 80 to 300 gf/inch, (0.03 to 0.116 N/mm) as measured at a peel angel of 180° and a peel rate of 30 m/min according to Measurement Method 3 described herein, in a state including said structure.
A method of carrying out modifications to a software application having an application code which has a graphical user interface (GUI) , said method comprising - reading at least one portion of the application code , with the portion relating to the GUI ; - modifying a section of the GUI ; and - saving the modified section of the GUI , characterized in that , - before the at least one portion of the application code is read, a dynamic library is injected into the software application to allow a control of the software application , with the application code being executable code in which the injection takes place during the runtime of the application code ; - a graphical element is modified on the modification of the GUI , with the modification of the GUI effecting a modification of the portion of the application code and/or of an instance of the portion of the application code ; and - the read portion of the application code is read as a binary code. - reading at least one portion of the application code , with the portion relating to the GUI ; - modifying a section of the GUI ; and - saving the modified section of the GUI , characterized in that , - before the at least one portion of the application code is read, a dynamic library is injected into the software application to allow a control of the software application , with the application code being executable code in which the injection takes place during the runtime of the application code ; - a graphical element is modified on the modification of the GUI , with the modification of the GUI effecting a modification of the portion of the application code and/or of an instance of the portion of the application code ; and - the read portion of the application code is read as a binary code.