mhurhangee/patent-ind-claim-en huggingface dataset:
An orthotic joint splint having a flat upper articulated arm and a flat lower articulated arm , which is mounted pivotably in an articulation axis perpendicular to said upper articulated arm and which overlaps said arm in the region of the articulation axis, characterized in that on or in the upper articulated arm a pad carriage with a pad is displaceably mounted in a carriage track and the pad carriage is coupled in a positively guided manner to the lower articulated arm via a motion transmitting mechanism , selected from cam mechanisms and mechanical linkages.
A method for calculating a location of a center of mass of an aircraft during flight, wherein the aircraft comprises: a fuselage that includes a center fuel tank; a left wing extending from the fuselage that includes a left fuel tank , wherein the left wing includes a left aileron ; a right wing extending from the fuselage that includes a right fuel tank , wherein the right wing includes a right aileron ; a left elevator ; a right elevator ; and a controller , the method comprising performing by the controller steps of: detecting positions of control surfaces on aerodynamic bodies of the aircraft, wherein the positions include positions of the left aileron , of the right aileron , of a control surface of the left elevator , and of a control surface of the right elevator of the aircraft ; calculating aerodynamic forces of the aerodynamic bodies based on the detected positions of the control surfaces , wherein the aerodynamic bodies include the left wing , right wing , left elevator , and right elevator ; determining locations, relative to the aircraft , of centers of pressure of the calculated aerodynamic forces; receiving a current total mass of the aircraft; and calculating the location of the center of mass of the aircraft , based on the calculated aerodynamic forces, the determined locations, and the received current total mass. a fuselage that includes a center fuel tank; a left wing extending from the fuselage that includes a left fuel tank , wherein the left wing includes a left aileron ; a right wing extending from the fuselage that includes a right fuel tank , wherein the right wing includes a right aileron ; a left elevator ; a right elevator ; and a controller , detecting positions of control surfaces on aerodynamic bodies of the aircraft, wherein the positions include positions of the left aileron , of the right aileron , of a control surface of the left elevator , and of a control surface of the right elevator of the aircraft ; calculating aerodynamic forces of the aerodynamic bodies based on the detected positions of the control surfaces , wherein the aerodynamic bodies include the left wing , right wing , left elevator , and right elevator ; determining locations, relative to the aircraft , of centers of pressure of the calculated aerodynamic forces; receiving a current total mass of the aircraft; and calculating the location of the center of mass of the aircraft , based on the calculated aerodynamic forces, the determined locations, and the received current total mass.
A dressing , comprising: a drape sealable over a wound bed; an absorbent layer coupled to the drape and configured to absorb fluid from the wound bed; a manifold layer abutting the absorbent layer , the manifold layer allowing the flow of air and fluid therethrough, the absorbent layer positioned between the manifold layer and the drape ; a first opening extending through the drape ; a first conduit extending though the absorbent layer and pneumatically communicable with the first opening and the manifold layer ; a first filter positioned between the first opening and the first conduit ; a connection pad positioned on the drape at the first opening , the connection pad configured to couple a tube to the dressing in pneumatic communication with the first opening , the tube coupled to a pump that provides a negative pressure to the wound bed; and a second opening extending through the drape that allows an airflow from the second opening to the tube via the manifold layer ; wherein the absorbent layer is configured to swell to block the airflow from the second opening to the tube when the absorbent layer is full of fluid. a drape sealable over a wound bed; an absorbent layer coupled to the drape and configured to absorb fluid from the wound bed; a manifold layer abutting the absorbent layer , the manifold layer allowing the flow of air and fluid therethrough, the absorbent layer positioned between the manifold layer and the drape ; a first opening extending through the drape ; a first conduit extending though the absorbent layer and pneumatically communicable with the first opening and the manifold layer ; a first filter positioned between the first opening and the first conduit ; a connection pad positioned on the drape at the first opening , the connection pad configured to couple a tube to the dressing in pneumatic communication with the first opening , the tube coupled to a pump that provides a negative pressure to the wound bed; and a second opening extending through the drape that allows an airflow from the second opening to the tube via the manifold layer ; wherein the absorbent layer is configured to swell to block the airflow from the second opening to the tube when the absorbent layer is full of fluid.
An information transmission method, wherein the method comprises: receiving (S101), by a first mobile device, in a first execution environment, plaintext information entered by a first user, and sending the plaintext information to an advanced execution environment by using a predetermined communications interface, wherein a security and trust level of the advanced execution environment is higher than a security and trust level of the first execution environment; performing (S102), by the first mobile device, in the advanced execution environment, encryption processing on the plaintext information, to obtain ciphertext information; and sending (S103), by the first mobile device, the ciphertext information to a second mobile device; wherein, after the sending, by the first mobile device, the ciphertext information to the second mobile device, when the first user requests to view the ciphertext information, the method further comprises: monitoring in real time, by the first mobile device, whether a fingerprint presented by the first user on a fingerprint sensor is recognized; and if the fingerprint of the first user leaves the fingerprint sensor or the fingerprint recognition fails, stopping a decryption processing, and stopping presenting the plaintext information and destroying the plaintext information. receiving (S101), by a first mobile device, in a first execution environment, plaintext information entered by a first user, and sending the plaintext information to an advanced execution environment by using a predetermined communications interface, wherein a security and trust level of the advanced execution environment is higher than a security and trust level of the first execution environment; performing (S102), by the first mobile device, in the advanced execution environment, encryption processing on the plaintext information, to obtain ciphertext information; and sending (S103), by the first mobile device, the ciphertext information to a second mobile device; wherein, after the sending, by the first mobile device, the ciphertext information to the second mobile device, when the first user requests to view the ciphertext information, the method further comprises: monitoring in real time, by the first mobile device, whether a fingerprint presented by the first user on a fingerprint sensor is recognized; and if the fingerprint of the first user leaves the fingerprint sensor or the fingerprint recognition fails, stopping a decryption processing, and stopping presenting the plaintext information and destroying the plaintext information. monitoring in real time, by the first mobile device, whether a fingerprint presented by the first user on a fingerprint sensor is recognized; and if the fingerprint of the first user leaves the fingerprint sensor or the fingerprint recognition fails, stopping a decryption processing, and stopping presenting the plaintext information and destroying the plaintext information.
A lentiviral vector comprising a polynucleotide encoding a fusion polypeptide comprising: I) (a) a TGFβR2 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR2; (ii) an IL-12Rβ2 transmembrane domain; and (iii) an IL-12Rβ2 intracellular signaling domain; (b) a viral self-cleaving 2A peptide; and (c) a TGFβR1 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR1; (ii) an IL-12Rβ1 transmembrane domain; and (iii) an IL-12Rβ1 intracellular signaling domain; or II) (a) a TGFβR2 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR2; (ii) an IL-12Rβ1 transmembrane domain; and (iii) an IL-12Rβ1 intracellular signaling domain; (b) a viral self-cleaving 2A peptide; and (c) a TGFβR1 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR1; (ii) an IL-12Rβ2 transmembrane domain; and (iii) an IL-12Rβ2 intracellular signaling domain. I) (a) a TGFβR2 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR2; (ii) an IL-12Rβ2 transmembrane domain; and (iii) an IL-12Rβ2 intracellular signaling domain; (b) a viral self-cleaving 2A peptide; and (c) a TGFβR1 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR1; (ii) an IL-12Rβ1 transmembrane domain; and (iii) an IL-12Rβ1 intracellular signaling domain; or (a) a TGFβR2 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR2; (ii) an IL-12Rβ2 transmembrane domain; and (iii) an IL-12Rβ2 intracellular signaling domain; (i) an extracellular TGFβ1-binding domain of TGFβR2; (ii) an IL-12Rβ2 transmembrane domain; and (iii) an IL-12Rβ2 intracellular signaling domain; (b) a viral self-cleaving 2A peptide; and (c) a TGFβR1 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR1; (ii) an IL-12Rβ1 transmembrane domain; and (iii) an IL-12Rβ1 intracellular signaling domain; or (i) an extracellular TGFβ1-binding domain of TGFβR1; (ii) an IL-12Rβ1 transmembrane domain; and (iii) an IL-12Rβ1 intracellular signaling domain; or II) (a) a TGFβR2 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR2; (ii) an IL-12Rβ1 transmembrane domain; and (iii) an IL-12Rβ1 intracellular signaling domain; (b) a viral self-cleaving 2A peptide; and (c) a TGFβR1 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR1; (ii) an IL-12Rβ2 transmembrane domain; and (iii) an IL-12Rβ2 intracellular signaling domain. (a) a TGFβR2 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR2; (ii) an IL-12Rβ1 transmembrane domain; and (iii) an IL-12Rβ1 intracellular signaling domain; (i) an extracellular TGFβ1-binding domain of TGFβR2; (ii) an IL-12Rβ1 transmembrane domain; and (iii) an IL-12Rβ1 intracellular signaling domain; (b) a viral self-cleaving 2A peptide; and (c) a TGFβR1 polypeptide comprising: (i) an extracellular TGFβ1-binding domain of TGFβR1; (ii) an IL-12Rβ2 transmembrane domain; and (iii) an IL-12Rβ2 intracellular signaling domain. (i) an extracellular TGFβ1-binding domain of TGFβR1; (ii) an IL-12Rβ2 transmembrane domain; and (iii) an IL-12Rβ2 intracellular signaling domain.
A liftgate assembly for a vehicle, comprising: at least one liftgate panel including at least one reinforcement area; at least one overmolded bracket with at least one open mounting surface at at least one predetermined location adapted to selectively operably connect at least one predetermined liftgate attachments ; at least one aperture maintained through the at least one overmolded bracket adapted to selectively operably connect at least one further predetermined liftgate attachments ; and characterized by comprising at least one tether routed through the at least one aperture . at least one liftgate panel including at least one reinforcement area; at least one overmolded bracket with at least one open mounting surface at at least one predetermined location adapted to selectively operably connect at least one predetermined liftgate attachments ; at least one aperture maintained through the at least one overmolded bracket adapted to selectively operably connect at least one further predetermined liftgate attachments ; and characterized by comprising at least one tether routed through the at least one aperture .
A buffer system for a gas turbine engine comprising: a heat exchanger having a first inlet and outlet and a second inlet and outlet , the first outlet configured to provide a cooled pressurized fluid ; first and second air sources selectively fluidly coupled to the first inlet ; and multiple fluid-supplied areas (76A-D) located remotely from one another and fluidly coupled to the first outlet , the multiple fluid-supplied areas (76A-D) including multiple bearing compartments; characterised in that the system further comprises: a third air source fluidly coupled to the second inlet , wherein the first, second and third air sources are different than one another; and low and high pressure compressors , one of the first and second air sources being provided by the high pressure compressor , and the third air source being provided by the low pressure compressor . a heat exchanger having a first inlet and outlet and a second inlet and outlet , the first outlet configured to provide a cooled pressurized fluid ; first and second air sources selectively fluidly coupled to the first inlet ; and multiple fluid-supplied areas (76A-D) located remotely from one another and fluidly coupled to the first outlet , the multiple fluid-supplied areas (76A-D) including multiple bearing compartments; characterised in that the system further comprises: a third air source fluidly coupled to the second inlet , wherein the first, second and third air sources are different than one another; and low and high pressure compressors , one of the first and second air sources being provided by the high pressure compressor , and the third air source being provided by the low pressure compressor . a third air source fluidly coupled to the second inlet , wherein the first, second and third air sources are different than one another; and low and high pressure compressors , one of the first and second air sources being provided by the high pressure compressor , and the third air source being provided by the low pressure compressor .
Measuring system for detecting a physical parameter, wherein the measuring system has the following features: - a measuring sensor for detecting the physical parameter, wherein the measuring sensor has a first terminal (A), a second terminal (B) and at least one third terminal (C); - a first power supply unit for outputting electrical energy to the measuring sensor via the first terminal (A) and the second terminal (B), wherein the first power supply unit is designed to output the electrical energy to the measuring sensor with a first voltage (U1) with respect to a first ground potential (GND1); and - a second power supply unit for outputting electrical energy to the measuring sensor via the third terminal (C) and the second terminal (B) or a fourth terminal (D), wherein the second power supply unit is designed to output the electrical energy to the measuring sensor with a second voltage (U2) with respect to a second ground potential (GND2), in particular wherein the first ground potential (GND1) differs at least temporarily from the second ground potential (GND2), characterized in that the first power supply unit has an additional voltage source , wherein the second terminal (B) of the measuring sensor is electrically connected via the additional voltage source to the first ground potential (GND1). - a measuring sensor for detecting the physical parameter, wherein the measuring sensor has a first terminal (A), a second terminal (B) and at least one third terminal (C); - a first power supply unit for outputting electrical energy to the measuring sensor via the first terminal (A) and the second terminal (B), wherein the first power supply unit is designed to output the electrical energy to the measuring sensor with a first voltage (U1) with respect to a first ground potential (GND1); and - a second power supply unit for outputting electrical energy to the measuring sensor via the third terminal (C) and the second terminal (B) or a fourth terminal (D), wherein the second power supply unit is designed to output the electrical energy to the measuring sensor with a second voltage (U2) with respect to a second ground potential (GND2), in particular wherein the first ground potential (GND1) differs at least temporarily from the second ground potential (GND2),
A modular LED street light, with a pole, arranged at the side of the roadway, comprising an LED board having a plurality of LEDs arranged in rows with a longitudinal axis; a transparent plate provided with a number of lenses that corresponds to the number of said LEDs ; said plate being applied to said board wherein each LED corresponds to a respective lens ; each of said lenses having a different profile in order to distribute the light emitted by the respective LED in a different manner; characterized in that , said longitudinal axis of said rows of LEDs is, in use, arranged transversal to the roadway lit by said street light; said lenses being configured to distribute the light forward, starting from a front lens , located closest to the center of the roadway, which distributes the light forward, toward the center of the roadway, while the lenses that are progressively further back from the center of the roadway, up to the rear lens , distribute the light in a manner more diffused downward.
Microelectronic module for altering the electromagnetic signature of a surface, comprising: a thin-layered planar substrate ; at least one voltage converter for converting a first voltage (V1) provided into a higher or lower second voltage (V2); at least one actuator , comprising at least one generator for generating an electrical plasma from the second voltage (V2) provided by the voltage converter ; wherein at least the voltage converter and the actuator are arranged on the thin-layered planar substrate ; and wherein the electromagnetic signature of the surface is altered by an interaction of the electrical plasma generated by the actuator with an electromagnetic radiation impinging on the surface. a thin-layered planar substrate ; at least one voltage converter for converting a first voltage (V1) provided into a higher or lower second voltage (V2); at least one actuator , comprising at least one generator for generating an electrical plasma from the second voltage (V2) provided by the voltage converter ; wherein at least the voltage converter and the actuator are arranged on the thin-layered planar substrate ; and wherein the electromagnetic signature of the surface is altered by an interaction of the electrical plasma generated by the actuator with an electromagnetic radiation impinging on the surface.
A network device , comprising: a processing resource ; and a memory resource storing machine-readable instructions, characterised in that the machine-readable instructions are to cause the processing resource to: group antenna polarization patterns into polarization groups, PGs, wherein an antenna polarization pattern comprises a pattern of antenna polarization combinations included in radio chains of the network device, and wherein each polarization group, PG, comprises a plurality of similar antenna polarization patterns; determine a respective packet error rate, PER, of a representative antenna polarization pattern of each PG of the PGs; select a PG of the PGs with the representative antenna polarization pattern having the lowest determined PER of the PGs; determine a PER of each antenna polarization pattern included in the selected PG; and associate , with a client device, an antenna polarization pattern having the lowest determined PER of the selected PG. a processing resource ; and a memory resource storing machine-readable instructions, characterised in that the machine-readable instructions are to cause the processing resource to: group antenna polarization patterns into polarization groups, PGs, wherein an antenna polarization pattern comprises a pattern of antenna polarization combinations included in radio chains of the network device, and wherein each polarization group, PG, comprises a plurality of similar antenna polarization patterns; determine a respective packet error rate, PER, of a representative antenna polarization pattern of each PG of the PGs; select a PG of the PGs with the representative antenna polarization pattern having the lowest determined PER of the PGs; determine a PER of each antenna polarization pattern included in the selected PG; and associate , with a client device, an antenna polarization pattern having the lowest determined PER of the selected PG. group antenna polarization patterns into polarization groups, PGs, wherein an antenna polarization pattern comprises a pattern of antenna polarization combinations included in radio chains of the network device, and wherein each polarization group, PG, comprises a plurality of similar antenna polarization patterns; determine a respective packet error rate, PER, of a representative antenna polarization pattern of each PG of the PGs; select a PG of the PGs with the representative antenna polarization pattern having the lowest determined PER of the PGs; determine a PER of each antenna polarization pattern included in the selected PG; and associate , with a client device, an antenna polarization pattern having the lowest determined PER of the selected PG.
Container made of plastic, provided with a body and a bottom base extending from a lower end of the body , the bottom base comprising: - an annular central zone concentric to an injection point located approximately at the center of the bottom base ; - a peripheral seat defining a laying plane ; - a concave arch which extends from the periphery of the central zone to the peripheral seat and having a rounded general shape with a concavity turned towards the outside of the container ; - a series of principal reinforcing grooves which extend radially from the central zone to at least the peripheral seat defining for each principal reinforcing groove a main axis (G, G', G"), characterized in that the bottom base further comprises a series of notches and in that at least one of the series of notches locally interrupt at least one of the series of principal reinforcing grooves . - an annular central zone concentric to an injection point located approximately at the center of the bottom base ; - a peripheral seat defining a laying plane ; - a concave arch which extends from the periphery of the central zone to the peripheral seat and having a rounded general shape with a concavity turned towards the outside of the container ; - a series of principal reinforcing grooves which extend radially from the central zone to at least the peripheral seat defining for each principal reinforcing groove a main axis (G, G', G"), characterized in that the bottom base further comprises a series of notches and in that at least one of the series of notches locally interrupt at least one of the series of principal reinforcing grooves .