mhurhangee/patent-ind-claim-en huggingface dataset:
A compressor diffuser for a gas turbine engine defining a center axis , the compressor diffuser comprising diffuser pipes in a circumferential array about the center axis , one or more of the diffuser pipes having a tubular body with a first portion extending from an inlet of said diffuser pipe , a second portion extending along a generally axial direction relative to the center axis , and a bend portion fluidly connecting the first and second portions , an exit segment of the second portion defining a pipe outlet , characterised in that the exit segment is curved radially outwardly relative to the center axis .
An oral care tooth paste composition comprising: i) particulate abrasive in which the particulate abrasive comprises silica and/or calcium carbonate. ii) aspartic acid or salt thereof; and iii) fumaric acid or sodium salt thereof i) particulate abrasive in which the particulate abrasive comprises silica and/or calcium carbonate. ii) aspartic acid or salt thereof; and iii) fumaric acid or sodium salt thereof
A system for cleaning a hard target surface, said system comprising: a steam generating appliance , said appliance having a sole plate for removably attaching a floor sheet thereto; a floor sheet removably attachable to said sole plate ; wherein the system further comprises: a cleaning solution, said cleaning solution being applicable to the target surface with steam from said appliance ; characterized in that said floor sheet further comprises the cleaning solution disposed on said floor sheet in dry form.
A solid comprising particles which comprise Cu nanoparticles deposited on a phyllosilicate, wherein the particles have (i) a nanometric dimension; (ii) a first micro-sized dimension; and (iii) a second micro-sized dimension; wherein the mean size of the nanometric dimension is 100 nm or lower; wherein the mean size of first micro-sized dimension is between 200 and 1000 nm; and wherein the mean size of second micro-sized dimension is between 200 and 1000 nm. (i) a nanometric dimension; (ii) a first micro-sized dimension; and (iii) a second micro-sized dimension;
An apparatus , comprising: Circuitry , which is configured to: receive an analog body-surface signal from one or more body-surface electrodes attached externally to a patient ; receive multiple analog unipolar signals from multiple unipolar electrodes of a probe inserted in an organ of the patient; assign, from among the multiple unipolar electrodes, a first unipolar electrode to serve as a common electrical ground and a common timing reference for the analog unipolar signals and the analog body-surface signal; digitize the analog unipolar signals to produce respective digital unipolar signals by sampling the analog unipolar signals relative to a digital ground; and define (i) an analog bipolar signal between the first unipolar electrode and a second unipolar electrode of the probe and (ii) a digital bipolar signal formed from respective digital unipolar signals derived from the first unipolar electrode and the second unipolar electrode; and a processor, which is configured to: estimate a ground offset and a timing offset between the analog bipolar signal and the digital bipolar signal, while the first unipolar electrode is connected to the digital ground; and apply the ground offset and the timing offset in measuring a third unipolar signal, sensed by a third unipolar electrode of the probe, relative to the body-surface signal. receive an analog body-surface signal from one or more body-surface electrodes attached externally to a patient ; receive multiple analog unipolar signals from multiple unipolar electrodes of a probe inserted in an organ of the patient; assign, from among the multiple unipolar electrodes, a first unipolar electrode to serve as a common electrical ground and a common timing reference for the analog unipolar signals and the analog body-surface signal; digitize the analog unipolar signals to produce respective digital unipolar signals by sampling the analog unipolar signals relative to a digital ground; and define (i) an analog bipolar signal between the first unipolar electrode and a second unipolar electrode of the probe and (ii) a digital bipolar signal formed from respective digital unipolar signals derived from the first unipolar electrode and the second unipolar electrode; and estimate a ground offset and a timing offset between the analog bipolar signal and the digital bipolar signal, while the first unipolar electrode is connected to the digital ground; and apply the ground offset and the timing offset in measuring a third unipolar signal, sensed by a third unipolar electrode of the probe, relative to the body-surface signal.
A fingerprint data processing method, being a part of a fingerprint algorithm processing program of an electronic device, comprising: receiving a first ciphertext that carries fingerprint data; wherein the first ciphertext is sent by a fingerprint sensor of the electronic device; decrypting the first ciphertext to obtain the fingerprint data; identifying the fingerprint data and generating an identification result; encrypting the identification result, and generating a second ciphertext that carries the identification result; and sending the second ciphertext to a corresponding application proxy or application program; wherein, the fingerprint algorithm processing program and the application proxy or application program run in a trusted execution environment. receiving a first ciphertext that carries fingerprint data; wherein the first ciphertext is sent by a fingerprint sensor of the electronic device; decrypting the first ciphertext to obtain the fingerprint data; identifying the fingerprint data and generating an identification result; encrypting the identification result, and generating a second ciphertext that carries the identification result; and sending the second ciphertext to a corresponding application proxy or application program; wherein, the fingerprint algorithm processing program and the application proxy or application program run in a trusted execution environment.
An equipment shelf comprising: at least one power supply unit (PSU) positioned in an upper region of the equipment shelf ; at least one battery backup unit (BBU) positioned in a lower region of the equipment shelf ; and an airflow path extending through the equipment shelf between the upper region and the lower region , wherein the airflow path separates the upper region of the equipment shelf from the lower region of the equipment shelf and thermally isolates the at least one PSU in the upper region from the at least one BBU in the lower region when air flows through the airflow path . at least one power supply unit (PSU) positioned in an upper region of the equipment shelf ; at least one battery backup unit (BBU) positioned in a lower region of the equipment shelf ; and an airflow path extending through the equipment shelf between the upper region and the lower region , wherein the airflow path separates the upper region of the equipment shelf from the lower region of the equipment shelf and thermally isolates the at least one PSU in the upper region from the at least one BBU in the lower region when air flows through the airflow path .
A composition comprising (a) functionalized graphene nanoribbons, wherein the functionalized graphene nanoribbons comprise water solubilizing addends functionalized at the edges of the graphene nanoribbons; and (b) a fusogen agent, wherein the functionalized graphene nanoribbons are mixed into a solution of the fusogen agent. (a) functionalized graphene nanoribbons, wherein the functionalized graphene nanoribbons comprise water solubilizing addends functionalized at the edges of the graphene nanoribbons; and (b) a fusogen agent, wherein the functionalized graphene nanoribbons are mixed into a solution of the fusogen agent.
A coating method for depositing a layer system (S) formed from hard material layers on a substrate , including the following method steps: - Providing an evacuable process chamber having two cathodic vacuum arc evaporation sources (Q1) with an evaporation material (M1) installed on two opposite flanges, and having two magnetron discharge sources (Q2) with a discharge material (M2 installed on two opposite flanges, 90° offset from the vacuum arc evaporation sources (Q1); - Depositing at least one contact layer (S1) including the evaporation material (M1) on the surface of the substrate in a cathodic vacuum arc evaporation process only by means of the cathodic vacuum arc evaporation sources (Q1); - after depositing the contact layer (S1), depositing at least one intermediate layer (S2) in the form of a nanostructured mixed layer, in particular in the form of a nano-layered intermediate layer (S2) in a hybrid phase or as a nanocomposite layer, comprising the evaporation material (M1) and the discharge material (M2), by parallel operation of the cathodic vacuum arc evaporation sources (Q1) and of the magnetron discharge sources (Q2); - and finally, depositing at least one top layer (S3) comprising the material (M2) only by means of the magnetron discharge sources (Q2); wherein during deposition of the interlayer (S2) and during deposition of the overlayer (S3), the magnetron discharge sources (Q2) are operated in a bipolar HIPIMS mode; and wherein during parallel operation of the cathodic vacuum arc evaporation sources (Q1) and the magnetron discharge sources (Q2) a coating pressure in the range of 0.5 Pa to 20 Pa, preferably in the range of 1 Pa to 10 Pa, is selected. - Providing an evacuable process chamber having two cathodic vacuum arc evaporation sources (Q1) with an evaporation material (M1) installed on two opposite flanges, and having two magnetron discharge sources (Q2) with a discharge material (M2 installed on two opposite flanges, 90° offset from the vacuum arc evaporation sources (Q1); - Depositing at least one contact layer (S1) including the evaporation material (M1) on the surface of the substrate in a cathodic vacuum arc evaporation process only by means of the cathodic vacuum arc evaporation sources (Q1); - after depositing the contact layer (S1), depositing at least one intermediate layer (S2) in the form of a nanostructured mixed layer, in particular in the form of a nano-layered intermediate layer (S2) in a hybrid phase or as a nanocomposite layer, comprising the evaporation material (M1) and the discharge material (M2), by parallel operation of the cathodic vacuum arc evaporation sources (Q1) and of the magnetron discharge sources (Q2); - and finally, depositing at least one top layer (S3) comprising the material (M2) only by means of the magnetron discharge sources (Q2);
A resin pelletizer apparatus comprising: a die that has a die surface having a die hole formed therein; a rotary blade that is configured to cut a resin extruded from the die hole into a pellet shape in water when being rotated on the die surface in the water; a rotation shaft that is configured to drive the rotary blade ; a sensor that is configured to detect elastic waves generated by the rotary blade during rotation on the die surface ; and a determination unit that is configured to monitor an output value of the sensor and determine that an abnormality has occurred when the output value of the sensor is outside a predetermined range, characterized in that the determination unit is configured to determine that an abrasion of at least one of the rotary blade and the die surface is in progress when the output value of the sensor is below a lower limit value of the predetermined range, or the determination unit is configured to determine that a cavitation has occurred when both of a case in which the output value of the sensor is above an upper limit value of the predetermined range and a case in which the output value of the sensor is below a lower limit value of the predetermined range have occurred within a predetermined period of time. a die that has a die surface having a die hole formed therein; a rotary blade that is configured to cut a resin extruded from the die hole into a pellet shape in water when being rotated on the die surface in the water; a rotation shaft that is configured to drive the rotary blade ; a sensor that is configured to detect elastic waves generated by the rotary blade during rotation on the die surface ; and a determination unit that is configured to monitor an output value of the sensor and determine that an abnormality has occurred when the output value of the sensor is outside a predetermined range, characterized in that the determination unit is configured to determine that an abrasion of at least one of the rotary blade and the die surface is in progress when the output value of the sensor is below a lower limit value of the predetermined range, or the determination unit is configured to determine that a cavitation has occurred when both of a case in which the output value of the sensor is above an upper limit value of the predetermined range and a case in which the output value of the sensor is below a lower limit value of the predetermined range have occurred within a predetermined period of time.
A method for producing an oxymethylene polymer, wherein the oxymethylene polymer is produced by polymerizing a cyclic oligomer of formaldehyde, and wherein a boron trifluoride compound (A) represented by BF 3 ·(X) n (wherein n represents 0 or 1, and X represents an alkyl ether having 2 to 20 carbon atoms, tetrahydrofuran or phenol) and an aryl fluoride boron compound (B) are used as polymerization catalysts.
A composition of matter for use in tissue regeneration, wherein the composition of matter is liquid at room temperature and is capable of forming a gel at 37 °C, wherein the composition of matter comprises solubilized, lyophilized decellularized omentum.
Device for an automatic connection of a high speed spindle to a numerically controlled machine, comprising a first connecting element configured to be fastened to a tool-holder spindle of a numerically controlled machine, and a second connecting element configured to be connected to the first connecting element and be fastened to the high-speed spindle comprising a tool and an electric motor for actuating the tool , wherein: - the first connecting element comprises at least one first electric contact element to electrically supply the high-speed spindle and a first duct for passing pressurized air, connected to a supply network of pressurized air; - the second connecting element comprises at least one second electric contact element configured to establish an electric contact with said first electric contact element and electrically supply the high-speed spindle , and a second duct for passing pressurized air coming from the first duct , said first and/or the second connecting elements comprise sealing means to sealing connect the first connecting element and the second connecting element in order to prevent the air flow, by flowing between the first and the second connecting element , from going outside and in order to allow a passage of the air flow from the first to the second connecting elements through their respective ducts to send it to the spindle characterized in that said second connecting element comprises a pin inserted inside the second duct to prevent the air flow between the second duct and the spindle when the first and second connecting elements are not sealing connected, said first duct comprising a pressing element inserted therein and configured to contact the pin when the electric contact elements are not in contact allowing the air flow coming from the first duct crosses the space between the first connecting element and the second connecting element that are not sealing connected and goes outside. - the first connecting element comprises at least one first electric contact element to electrically supply the high-speed spindle and a first duct for passing pressurized air, connected to a supply network of pressurized air; - the second connecting element comprises at least one second electric contact element configured to establish an electric contact with said first electric contact element and electrically supply the high-speed spindle , and a second duct for passing pressurized air coming from the first duct ,
A method for operating a terminal in a wireless communication system, the method comprising: receiving , from a base station, a signal including broadcast information; determining a first autocorrelation value using a repetitive pattern of the signal; determining whether the terminal is moving or in a stationary state based on a second autocorrelation value measured in a primary synchronization sequence, PSS, or secondary synchronization sequence, SSS; if it is determined that the terminal is in the stationary state, determining whether the base station supports coverage enhancement based on the first autocorrelation value and decoding, if the base station supports the coverage enhancement, the received signal to acquire the broadcast information based on the coverage enhancement; and if it is determined that the terminal is moving, decoding the received signal to acquire the broadcast information without using the coverage enhancement. receiving , from a base station, a signal including broadcast information; determining a first autocorrelation value using a repetitive pattern of the signal; determining whether the terminal is moving or in a stationary state based on a second autocorrelation value measured in a primary synchronization sequence, PSS, or secondary synchronization sequence, SSS; if it is determined that the terminal is in the stationary state, determining whether the base station supports coverage enhancement based on the first autocorrelation value and decoding, if the base station supports the coverage enhancement, the received signal to acquire the broadcast information based on the coverage enhancement; and if it is determined that the terminal is moving, decoding the received signal to acquire the broadcast information without using the coverage enhancement.
Rear retaining device for a boot binding on a sliding device , comprising: - a chassis intended to be secured to the sliding device; - a jaw for retaining a heel of the boot, the jaw being movable with respect to the chassis from an engaged position to a disengaged position; - a disengagement mechanism , which is housed in the chassis and cooperates with the jaw so as to allow the jaw to tip from its engaged position to its disengaged position when the jaw is loaded beyond a given threshold force, in a disengagement direction (D), the disengagement mechanism comprising: - adjusting means for modifying the given threshold force, and - a visual indicator that is visible from an upper face of the chassis; - an actuating lever that is able to cooperate with the jaw so as to tip the jaw from its engaged position to its disengaged position, the actuating lever comprising an opening delimited by a front face , a rear face and two lateral faces , the opening being disposed facing the visual indicator when the actuating lever is in a configuration in which the jaw is in its disengaged position, characterized in that the actuating lever comprises one or more ribs that each connect two faces of the opening, the rib(s) being dimensioned and disposed so as to divide the opening into a plurality of windows that all have a maximum width (W133) less than 0.85 centimetre. - a chassis intended to be secured to the sliding device; - a jaw for retaining a heel of the boot, the jaw being movable with respect to the chassis from an engaged position to a disengaged position; - a disengagement mechanism , which is housed in the chassis and cooperates with the jaw so as to allow the jaw to tip from its engaged position to its disengaged position when the jaw is loaded beyond a given threshold force, in a disengagement direction (D), the disengagement mechanism comprising: - adjusting means for modifying the given threshold force, and - a visual indicator that is visible from an upper face of the chassis; - adjusting means for modifying the given threshold force, and - a visual indicator that is visible from an upper face of the chassis; - an actuating lever that is able to cooperate with the jaw so as to tip the jaw from its engaged position to its disengaged position, the actuating lever comprising an opening delimited by a front face , a rear face and two lateral faces , the opening being disposed facing the visual indicator when the actuating lever is in a configuration in which the jaw is in its disengaged position,
An information processing device comprising: a type identification unit configured to identify a type of waste material accumulated in a waste pit or in a waste accumulation place and a type of an identification target other than the waste material when new image data of an inside of the waste pit or the waste accumulation place, respectively, is given as an input by using an identification algorithm which has been learned with training data prepared by labeling a type of waste material and by labelling the identification target other than the waste material by type of the target on past image data obtained by capturing the inside of the waste pit or the waste accumulation place, respectively, where the waste material is accumulated.
Ceiling module for the construction of a clean room cell , comprising: - a module support for arrangement on and connection to a support structure ; - a technical device comprising at least one filter unit ; - a ceiling support which is spaced apart from the module support such that a technical space is formed between the ceiling support and the module support , wherein the module support , the ceiling support and the technical device are connected to form a unit, and wherein the technical device is arranged inside the technical space , wherein the module support is rectangular and has two longitudinal supports and a plurality of transverse supports . - a module support for arrangement on and connection to a support structure ; - a technical device comprising at least one filter unit ; - a ceiling support which is spaced apart from the module support such that a technical space is formed between the ceiling support and the module support , wherein the module support , the ceiling support and the technical device are connected to form a unit, and wherein the technical device is arranged inside the technical space , wherein the module support is rectangular and has two longitudinal supports and a plurality of transverse supports .