mhurhangee/patent-ind-claim-en huggingface dataset:
A removable mobile device connection apparatus comprising: a folded first material configured into a geometric shape comprising a first layer and a second layer ; wherein the first layer comprises a top surface, a bottom surface, and a bottom edge, and the second layer is located below the first layer and comprises a top surface, a bottom surface, and a bottom edge; a strengthening material located between the first layer and the second layer and configured to create a connection point extending from the center of the bottom edges of the first and second layer ; and a second material configured into a geometric shape comprising a third layer and located beneath the second layer , the second material having a temporary cling property to removably adhere the second material to a back surface of a mobile device without the requirement for adhesion to the mobile device with an adhesive; wherein the bottom surface of the first layer is adhered by a first adhesive to the strengthening material and also to the top surface of the second layer , and the bottom surface of the second layer is adhered by a second adhesive to the top surface of the third layer . a folded first material configured into a geometric shape comprising a first layer and a second layer ; wherein the first layer comprises a top surface, a bottom surface, and a bottom edge, and the second layer is located below the first layer and comprises a top surface, a bottom surface, and a bottom edge; a strengthening material located between the first layer and the second layer and configured to create a connection point extending from the center of the bottom edges of the first and second layer ; and a second material configured into a geometric shape comprising a third layer and located beneath the second layer , the second material having a temporary cling property to removably adhere the second material to a back surface of a mobile device without the requirement for adhesion to the mobile device with an adhesive; wherein the bottom surface of the first layer is adhered by a first adhesive to the strengthening material and also to the top surface of the second layer , and the bottom surface of the second layer is adhered by a second adhesive to the top surface of the third layer .
A dosing device for dispensing at least one flowable detergent and/or cleaning agent preparation into the interior of a domestic appliance, comprising ▪ a cartridge which can be coupled to the dosing device , the cartridge storing at least one flowable detergent and/or cleaning agent preparation , ▪ and the cartridge having at least one outlet opening on the base in the direction of gravity, which opening, in the state in which it is coupled to the dosing device , is communicatively connected to a dosing chamber inlet located in the dosing device , such that in the use position of the dosing device , preparation , induced by gravity, flows from the cartridge into a dosing chamber , ▪ a dosing chamber outlet which is downstream of the dosing chamber inlet in the direction of gravity and can be closed by a valve, ▪ a floating body is arranged in the dosing chamber , the density of which body is lower than the density of the preparation , ▪ the floating body being designed in such a way that preparation can flow around and/or through the floating body , ▪ and the floating body and the dosing chamber inlet being configured in such a way that the dosing chamber inlet can be closed by the floating body , characterized in that ▪ in the dispensing position of the valve, the rate at which the floating body rises in the detergent and/or cleaning agent preparation is lower than the flow rate of the preparation from the dosing chamber that surrounds the floating body . ▪ a cartridge which can be coupled to the dosing device , the cartridge storing at least one flowable detergent and/or cleaning agent preparation , ▪ and the cartridge having at least one outlet opening on the base in the direction of gravity, which opening, in the state in which it is coupled to the dosing device , is communicatively connected to a dosing chamber inlet located in the dosing device , such that in the use position of the dosing device , preparation , induced by gravity, flows from the cartridge into a dosing chamber , ▪ a dosing chamber outlet which is downstream of the dosing chamber inlet in the direction of gravity and can be closed by a valve, ▪ a floating body is arranged in the dosing chamber , the density of which body is lower than the density of the preparation , ▪ the floating body being designed in such a way that preparation can flow around and/or through the floating body , ▪ and the floating body and the dosing chamber inlet being configured in such a way that the dosing chamber inlet can be closed by the floating body , characterized in that ▪ in the dispensing position of the valve, the rate at which the floating body rises in the detergent and/or cleaning agent preparation is lower than the flow rate of the preparation from the dosing chamber that surrounds the floating body .
A sensor assembly for a vehicle, comprising: a sensor body ; and a positioning bracket for positioning the sensor body , a first rotary shaft and a second rotary shaft are respectively provided on opposing first side and second side of the sensor body , and the first rotary shaft and the second rotary shaft are respectively rotatably accommodated in a first rotary shaft receiving portion and a second rotary shaft receiving portion provided on the positioning bracket so as to achieve the rotation of the sensor body relative to the positioning bracket ; and a toothed structure is provided on a third side of the sensor body , other than the first side and the second side , and a detent structure is correspondingly provided on the positioning bracket , and when the sensor body rotates to a desired angle relative to the positioning bracket , fixing of the sensor body relative to the positioning bracket is enabled by means of the engagement between the toothed structure and the detent structure , characterized in that , the sensor body comprises a camera, a radar, or a combination thereof, and the angle of a sensor body relative to its positioning bracket is adjustable. a sensor body ; and a positioning bracket for positioning the sensor body , a first rotary shaft and a second rotary shaft are respectively provided on opposing first side and second side of the sensor body , and the first rotary shaft and the second rotary shaft are respectively rotatably accommodated in a first rotary shaft receiving portion and a second rotary shaft receiving portion provided on the positioning bracket so as to achieve the rotation of the sensor body relative to the positioning bracket ; and a toothed structure is provided on a third side of the sensor body , other than the first side and the second side , and a detent structure is correspondingly provided on the positioning bracket , and when the sensor body rotates to a desired angle relative to the positioning bracket , fixing of the sensor body relative to the positioning bracket is enabled by means of the engagement between the toothed structure and the detent structure , characterized in that , the sensor body comprises a camera, a radar, or a combination thereof, and the angle of a sensor body relative to its positioning bracket is adjustable.
A high voltage system comprising: a high voltage bushing having a bushing body configured to be assembled with a tank filled with a dielectric liquid wherein the bushing body has a cavity , and the bushing comprises a dielectric liquid level sensor configured to measure a dielectric liquid level in the cavity , and characterized by a temperature distribution determining device configured to determine a temperature distribution in the bushing based on the dielectric liquid level measured by the dielectric liquid level sensor , wherein the temperature distribution determining device is configured to obtain a dielectric liquid temperature (T2) of the dielectric liquid in the tank , wherein the temperature distribution determining device is configured to determine the temperature distribution further based on the dielectric liquid temperature (T2). a high voltage bushing having a bushing body configured to be assembled with a tank filled with a dielectric liquid wherein the bushing body has a cavity , and the bushing comprises a dielectric liquid level sensor configured to measure a dielectric liquid level in the cavity , and characterized by a temperature distribution determining device configured to determine a temperature distribution in the bushing based on the dielectric liquid level measured by the dielectric liquid level sensor , wherein the temperature distribution determining device is configured to obtain a dielectric liquid temperature (T2) of the dielectric liquid in the tank , wherein the temperature distribution determining device is configured to determine the temperature distribution further based on the dielectric liquid temperature (T2).
Screw , comprising the following functional sections which merge into one another or adjoin one another: - a threaded tip formed as a cone (A) and carrying a double thread, wherein the double thread comprises a main thread and a secondary thread ; - a substantially cylindrical milling section (B) having a plurality of milling ribs designed as a steep thread, the outside diameter of which, measured over the ribs, is D F ; - a substantially cylindrical shank section (C) carrying only the main thread , in which the external thread diameter is D N ; - a substantially cylindrical, smooth, thread-free shank section (D); - a head section (G) with a force application , wherein - the main thread extends uninterruptedly and with a constant pitch from the tip section of the cone (A) via the milling section (B) to the head end of the thread-bearing shank section (C); and - the ribs of the milling section (B) are arranged countersunk in the thread base of the main thread passing through in such a way that the thread tips of the main thread passing through with nominal external diameter D B project beyond the milling ribs so that D F < D B applies. - a threaded tip formed as a cone (A) and carrying a double thread, wherein the double thread comprises a main thread and a secondary thread ; - a substantially cylindrical milling section (B) having a plurality of milling ribs designed as a steep thread, the outside diameter of which, measured over the ribs, is D F ; - a substantially cylindrical shank section (C) carrying only the main thread , in which the external thread diameter is D N ; - a substantially cylindrical, smooth, thread-free shank section (D); - a head section (G) with a force application , wherein - the main thread extends uninterruptedly and with a constant pitch from the tip section of the cone (A) via the milling section (B) to the head end of the thread-bearing shank section (C); and - the ribs of the milling section (B) are arranged countersunk in the thread base of the main thread passing through in such a way that the thread tips of the main thread passing through with nominal external diameter D B project beyond the milling ribs so that D F < D B applies.
An attachment assembly for attaching/removing on a cylindrical protuberance of an article , said attachment assembly consisting in: • a flexible cap configured for fitting an outer shape of said cylindrical protuberance, said flexible cap comprising a central recess part , • a RFID tag fixedly mounted in said central recess part, said RFID tag comprising identification data relative to said article, • a magnet having two opposite flat faces and being fixedly mounted by one of said two flat faces on said RFID tag and configured to be affixed by the opposite one of said two flat faces onto said cylindrical protuberance, said magnet generating a magnetic field perpendicular to said flat faces and improving the RFID tag sensitivity. • a flexible cap configured for fitting an outer shape of said cylindrical protuberance, said flexible cap comprising a central recess part , • a RFID tag fixedly mounted in said central recess part, said RFID tag comprising identification data relative to said article, • a magnet having two opposite flat faces and being fixedly mounted by one of said two flat faces on said RFID tag and configured to be affixed by the opposite one of said two flat faces onto said cylindrical protuberance, said magnet generating a magnetic field perpendicular to said flat faces and improving the RFID tag sensitivity.
Method for producing a substrate-free oxygen reduction catalyst for use in low temperature fuel cells comprising in the given sequence the steps of: a) producing a solution of a nitrogen-containing aromatic monomer which leads to conductive polymers and an aromatic sulfonic acid, b) producing a solution of an oxidising agent, c) mixing the solutions from step a) and b) and allowing the mixture to stand to produce a doped conductive polymer, wherein the solutions of step a) and b) may optionally be mixed with one or more transition metal salts to directly obtain a precursor mixture, d) if the precursor mixture has not already been prepared in step c), preparing the precursor mixture by 1.) mixing the doped conductive polymer with one or more transition metal salts or 2.) impregnating the doped conductive polymer with a dispersion of one or more transition metal salts, e) pyrolising the precursor mixture in an inert gas atmosphere to produce the catalyst, f) performing an acid etching step with a mixture of a mineral acid and a solvent to produce an etched catalyst, g) pyrolysing the etched catalyst in an inert gas atmosphere or a reactive gas atmosphere, h) optionally repeating the steps f) and g). a) producing a solution of a nitrogen-containing aromatic monomer which leads to conductive polymers and an aromatic sulfonic acid, b) producing a solution of an oxidising agent, c) mixing the solutions from step a) and b) and allowing the mixture to stand to produce a doped conductive polymer, wherein the solutions of step a) and b) may optionally be mixed with one or more transition metal salts to directly obtain a precursor mixture, d) if the precursor mixture has not already been prepared in step c), preparing the precursor mixture by 1.) mixing the doped conductive polymer with one or more transition metal salts or 2.) impregnating the doped conductive polymer with a dispersion of one or more transition metal salts, e) pyrolising the precursor mixture in an inert gas atmosphere to produce the catalyst, f) performing an acid etching step with a mixture of a mineral acid and a solvent to produce an etched catalyst, g) pyrolysing the etched catalyst in an inert gas atmosphere or a reactive gas atmosphere, h) optionally repeating the steps f) and g).
A vacuum cleaner comprising: a main casing ; a driving wheel for enabling the main casing to travel; control means for controlling drive of the driving wheel to make the main casing autonomously travel; abnormality detection means for detecting an abnormality; image pickup means for picking up an image; and transmission means for externally transmitting an image picked up by the image pickup means , characterized in that , the abnormality detection means detects an abnormal state of the vacuum cleaner and the control means has a cleaning mode for cleaning a cleaning-object surface, an image pickup mode for performing image pickup by the image pickup means , and a standby mode applied during a standby state, wherein when an abnormality is detected by the abnormality detection means during the cleaning mode, the control means is switched over to the image pickup mode to perform image pickup by the image pickup means at the position of this occurrence, and making the transmission means externally transmit the picked-up image thereby notifying the position of the vacuum cleaner . a main casing ; a driving wheel for enabling the main casing to travel; control means for controlling drive of the driving wheel to make the main casing autonomously travel; abnormality detection means for detecting an abnormality; image pickup means for picking up an image; and transmission means for externally transmitting an image picked up by the image pickup means , characterized in that , the abnormality detection means detects an abnormal state of the vacuum cleaner and the control means has a cleaning mode for cleaning a cleaning-object surface, an image pickup mode for performing image pickup by the image pickup means , and a standby mode applied during a standby state, wherein when an abnormality is detected by the abnormality detection means during the cleaning mode, the control means is switched over to the image pickup mode to perform image pickup by the image pickup means at the position of this occurrence, and making the transmission means externally transmit the picked-up image thereby notifying the position of the vacuum cleaner .
A method for determining a presence of an intracranial aneurysm in a subject, the method comprising analyzing a biological sample, that has been obtained from the subject for expression of biomarkers, wherein determining expression of the biomarkers that is different from a control indicates the presence of the intracranial aneurysm in the subject, the method comprising: i) determining that expression of all of the following biomarkers is increased relative to the control: PVRL2, CYP181, CD177, PDE9A, ARMC12, OLAH, TGS1, CD163, LOC100506229, OCLN, SEMA6B, ADTRP, VWA8, MTRNR2L1, HOX82, EPCAM, and IL18R1, and ii) determining that expression of all of the following biomarkers is decreased relative to the control: IGSF23, PTGES, G0S2, FCRL5, C1orf226, UTS2, HBG2, CYP2681, and C1QL1. i) determining that expression of all of the following biomarkers is increased relative to the control: PVRL2, CYP181, CD177, PDE9A, ARMC12, OLAH, TGS1, CD163, LOC100506229, OCLN, SEMA6B, ADTRP, VWA8, MTRNR2L1, HOX82, EPCAM, and IL18R1, and ii) determining that expression of all of the following biomarkers is decreased relative to the control: IGSF23, PTGES, G0S2, FCRL5, C1orf226, UTS2, HBG2, CYP2681, and C1QL1.
A light emitting device comprising: a resin molded body ; a plurality of light emitting diode (LED) elements each comprising at least a light emitting unit and an electrode , and embedded in the resin molded body so that the light emitting unit is exposed on a first surface which is a light emitting surface in the resin molded body and the electrode is exposed on a second surface which is perpendicular to the first surface in the resin molded body ; and a plurality of wirings formed in the second surface in the resin molded body and connected to the electrode , wherein a height of each LED element is equal to a thickness of the resin molded body in a direction (H) perpendicular to the second surface , wherein a plurality of the electrodes comprised in the light emitting diode elements are connected to each other through some wirings of the plurality of wirings . a resin molded body ; a plurality of light emitting diode (LED) elements each comprising at least a light emitting unit and an electrode , and embedded in the resin molded body so that the light emitting unit is exposed on a first surface which is a light emitting surface in the resin molded body and the electrode is exposed on a second surface which is perpendicular to the first surface in the resin molded body ; and a plurality of wirings formed in the second surface in the resin molded body and connected to the electrode , wherein a height of each LED element is equal to a thickness of the resin molded body in a direction (H) perpendicular to the second surface , wherein a plurality of the electrodes comprised in the light emitting diode elements are connected to each other through some wirings of the plurality of wirings .
A message transmission method, comprising: performing, by a communications device, a random access procedure by: performing, by the communications device, an initial random access attempt in the random access procedure at a coverage enhancement level 0; receiving (S101), by the communications device in a random access attempt after the initial random access attempt in the random access procedure, repetition quantity information from a network device, wherein when the communications device receives the repetition quantity information from the network device, the coverage enhancement level of the communication device is coverage enhancement level 0, 1 or 2, wherein the repetition quantity information indicates a repetition quantity of a third message in the random access attempt; calculating (S102), by the communications device, transmit power based on a power control parameter for any value of the repetition quantity information, wherein the power control parameter comprises: maximum transmit power of the communications device, a downlink path loss, preamble initial received target power, a preamble attempt quantity, a power ramping step, a power offset of the third message relative to a preamble, a path loss conversion proportionality coefficient, and a transmission bandwidth parameter; and sending (S103), by the communications device, the third message to the network device by using the transmit power. performing, by the communications device, an initial random access attempt in the random access procedure at a coverage enhancement level 0; receiving (S101), by the communications device in a random access attempt after the initial random access attempt in the random access procedure, repetition quantity information from a network device, wherein when the communications device receives the repetition quantity information from the network device, the coverage enhancement level of the communication device is coverage enhancement level 0, 1 or 2, wherein the repetition quantity information indicates a repetition quantity of a third message in the random access attempt; calculating (S102), by the communications device, transmit power based on a power control parameter for any value of the repetition quantity information, wherein the power control parameter comprises: maximum transmit power of the communications device, a downlink path loss, preamble initial received target power, a preamble attempt quantity, a power ramping step, a power offset of the third message relative to a preamble, a path loss conversion proportionality coefficient, and a transmission bandwidth parameter; and sending (S103), by the communications device, the third message to the network device by using the transmit power.