mhurhangee/patent-ind-claim-en huggingface dataset:
Adjusting valve for adjusting a control chamber pressure of a pressure medium brake for railway vehicles, having: a slide piston receptacle with a slide piston guide , a slide piston which is guided in the slide piston guide and can be moved bidirectionally in a direction of movement predefined by the slide piston guide , a first connecting section which fluidically connects a main pressure medium line (L) to the slide piston receptacle via at least a first connecting opening on the slide piston receptacle side, a second connecting section which fluidically connects a control chamber (A) to the slide piston receptacle via at least one second connecting opening on the slide piston receptacle side, wherein the at least one second connecting opening on the slide piston receptacle side is spaced apart from the at least one first connecting opening on the slide piston receptacle side in the direction of movement of the slide piston , and an adjusting volume receiving chamber (Av) which is fluidically connected via a third connecting section to the slide piston receptacle via at least one third connecting opening on the slide piston receptacle side, wherein the slide piston is configured such that, in at least a first position of the slide piston in the direction of movement, the adjusting volume receiving chamber (Av) can be fluidically connected to the control chamber (A) via the third connecting section and the second connecting section . a slide piston receptacle with a slide piston guide , a slide piston which is guided in the slide piston guide and can be moved bidirectionally in a direction of movement predefined by the slide piston guide , a first connecting section which fluidically connects a main pressure medium line (L) to the slide piston receptacle via at least a first connecting opening on the slide piston receptacle side, a second connecting section which fluidically connects a control chamber (A) to the slide piston receptacle via at least one second connecting opening on the slide piston receptacle side, wherein the at least one second connecting opening on the slide piston receptacle side is spaced apart from the at least one first connecting opening on the slide piston receptacle side in the direction of movement of the slide piston , and an adjusting volume receiving chamber (Av) which is fluidically connected via a third connecting section to the slide piston receptacle via at least one third connecting opening on the slide piston receptacle side, wherein the slide piston is configured such that, in at least a first position of the slide piston in the direction of movement, the adjusting volume receiving chamber (Av) can be fluidically connected to the control chamber (A) via the third connecting section and the second connecting section .
An isolation seal (400; 500; 600; 800) for a gas turbine engine, the isolation seal comprising: an elastomer body (406; 506; 606) configured to be attached to a first case structure (402; 502; 602) at a first end and a second case structure (404; 504; 604) at a second end; and a seal shield (420; 520; 620; 720; 820) configured to be attached to the first case structure, the seal shield having a shielding member (422; 522; 622; 722; 822) configured to define a protected space (426; 626; 826) between the shielding member and the elastomer body, wherein the shielding member (622; 722) is a hollow body having a cooling manifold (638; 738) and cooling channels (640; 740) formed therein, characterized by the cooling channels (640; 740) extend from a first end of the shielding member to a second end of the shielding member, the cooling channels are configured to receive cooling air through one or more cooling supply apertures distributed about a circumference of the shielding member into the cooling manifold (638; 738) at the first end and direct the cooling air into the protected space (426; 626; 826) through one or more cooling apertures arranged along a length of each cooling channel (640; 740). an elastomer body (406; 506; 606) configured to be attached to a first case structure (402; 502; 602) at a first end and a second case structure (404; 504; 604) at a second end; and a seal shield (420; 520; 620; 720; 820) configured to be attached to the first case structure, the seal shield having a shielding member (422; 522; 622; 722; 822) configured to define a protected space (426; 626; 826) between the shielding member and the elastomer body, wherein the shielding member (622; 722) is a hollow body having a cooling manifold (638; 738) and cooling channels (640; 740) formed therein, characterized by the cooling channels (640; 740) extend from a first end of the shielding member to a second end of the shielding member, the cooling channels are configured to receive cooling air through one or more cooling supply apertures distributed about a circumference of the shielding member into the cooling manifold (638; 738) at the first end and direct the cooling air into the protected space (426; 626; 826) through one or more cooling apertures arranged along a length of each cooling channel (640; 740).
A method of making a retroreflective article by local lamination, the method comprising: bringing areas of a pre-made reflective layer into contact with portions of protruding areas of at least some transparent microspheres that are borne by a carrier layer and that are partially embedded therein; physically transferring the areas of the pre-made reflective layer to the portions of the protruding areas of the transparent microspheres with which the areas of the pre-made reflective layer are in contact, so that the transferred areas of the pre-made reflective layer are bonded to the portions of the protruding areas of the transparent microspheres; wherein during the physically transferring process the physically transferred areas of the pre-made reflective layer are detached from regions of the pre-made reflective layer that previously laterally surrounded the physically transferred areas; then, disposing a binder precursor on the carrier layer and on the protruding areas of the transparent microspheres; and solidifying the binder precursor to form a retroreflective article comprising a binder layer and in which the physically transferred areas of the pre-made reflective layer are embedded between the transparent microspheres and the binder layer. bringing areas of a pre-made reflective layer into contact with portions of protruding areas of at least some transparent microspheres that are borne by a carrier layer and that are partially embedded therein; physically transferring the areas of the pre-made reflective layer to the portions of the protruding areas of the transparent microspheres with which the areas of the pre-made reflective layer are in contact, so that the transferred areas of the pre-made reflective layer are bonded to the portions of the protruding areas of the transparent microspheres; wherein during the physically transferring process the physically transferred areas of the pre-made reflective layer are detached from regions of the pre-made reflective layer that previously laterally surrounded the physically transferred areas; then, disposing a binder precursor on the carrier layer and on the protruding areas of the transparent microspheres; and solidifying the binder precursor to form a retroreflective article comprising a binder layer and in which the physically transferred areas of the pre-made reflective layer are embedded between the transparent microspheres and the binder layer.
An apparatus, comprising: a collective control column for an aircraft, wherein the collective control column includes a rotational interface rotatable in a first direction to provide a first input and a second direction opposite the first direction to provide a second input, wherein the rotational interface includes a collar that at least partially surrounds the collective control column, wherein the collar includes a follower to be biased into engagement with a surface of the collective control column , wherein the collar is to be longitudinally and rotationally biased to a central position between a first position of the collar associated with the first input and a second position of the collar associated with the second input; a memory to store instructions; and a processor responsive to the first input to execute the instructions to cause the aircraft to perform operations associated with flying the aircraft, the processor responsive to the second input to execute the instructions to cause the aircraft to perform operations associated with idling the aircraft. a collective control column for an aircraft, wherein the collective control column includes a rotational interface rotatable in a first direction to provide a first input and a second direction opposite the first direction to provide a second input, wherein the rotational interface includes a collar that at least partially surrounds the collective control column, wherein the collar includes a follower to be biased into engagement with a surface of the collective control column , wherein the collar is to be longitudinally and rotationally biased to a central position between a first position of the collar associated with the first input and a second position of the collar associated with the second input; a memory to store instructions; and a processor responsive to the first input to execute the instructions to cause the aircraft to perform operations associated with flying the aircraft, the processor responsive to the second input to execute the instructions to cause the aircraft to perform operations associated with idling the aircraft.
A gas safety device comprising: a flow path for flowing gas; a flow rate measurement unit for measuring a flow rate of the gas flowing through the flow path; a first absolute pressure sensor disposed inside the flow path to measure an absolute pressure of the gas; a second absolute pressure sensor disposed outside the flow path to measure an absolute pressure of atmospheric pressure; a gas pressure determination unit configured to measure a change in gas supply pressure from the absolute pressure of the gas and the absolute pressure of the atmospheric pressure measured by the first absolute pressure sensor and the second absolute pressure sensor , respectively; a shutoff valve configured to shut off the flow path; and a control circuit configured to control the flow rate measurement unit and to cause the shutoff valve to shut off the flow path when determining abnormality from the flow rate of the gas measured by the flow rate measurement unit or the change in gas supply pressure measured by the gas pressure determination unit . a flow path for flowing gas; a flow rate measurement unit for measuring a flow rate of the gas flowing through the flow path; a first absolute pressure sensor disposed inside the flow path to measure an absolute pressure of the gas; a second absolute pressure sensor disposed outside the flow path to measure an absolute pressure of atmospheric pressure; a gas pressure determination unit configured to measure a change in gas supply pressure from the absolute pressure of the gas and the absolute pressure of the atmospheric pressure measured by the first absolute pressure sensor and the second absolute pressure sensor , respectively; a shutoff valve configured to shut off the flow path; and a control circuit configured to control the flow rate measurement unit and to cause the shutoff valve to shut off the flow path when determining abnormality from the flow rate of the gas measured by the flow rate measurement unit or the change in gas supply pressure measured by the gas pressure determination unit .
Method for operating an electric charging control apparatus of an electric motor vehicle , wherein, if a charging cable having a charging plug is plugged into a charging socket of the electric charging control apparatus , said charging socket having a charging flap , for charging at least one battery of the electric motor vehicle , at least one charging process is controlled by means of a charging communication chip of the electric charging control apparatus , wherein, in the case of a deactivated charging communication chip , the charging communication chip is activated from a deactivated state when the charging flap is opened, characterized in that the charging communication chip remains activated only if the charging process takes place with a charging modality in which control by means of the charging communication chip is required, and otherwise the charging communication chip is deactivated again after a predetermined duration.
A system for depositing a fluid onto a substrate in a controlled manner for additive manufacturing, said system comprising: - a nanoinjector comprising: • a tank for storing said fluid, • a non-deformable projection having an ejection opening for extracting said fluid from said tank , - a mechanical resonator attached to said nanoinjector , said mechanical resonator being suitable for detecting contact between said projection and said substrate , - a means for controlling said mechanical resonator , which control means is connected to: - a means for energizing said mechanical resonator , which energization means is suitable for making said mechanical resonator oscillate at an oscillation frequency (fi), such that said projection oscillates between a low position in which said projection is in contact with said substrate and a high position in which said projection and said substrate are not in contact, - a detector means suitable for detecting said oscillation of said mechanical resonator , and - a regulating means suitable for adjusting said contact between said projection and said substrate by controlling said oscillation of said mechanical resonator , said regulating means being connected to a first movement means for said regulation, which movement means is suitable for at least bringing together or moving apart, along a z-axis, said substrate and said nanoinjector . - a nanoinjector comprising: • a tank for storing said fluid, • a non-deformable projection having an ejection opening for extracting said fluid from said tank , • a tank for storing said fluid, • a non-deformable projection having an ejection opening for extracting said fluid from said tank , - a mechanical resonator attached to said nanoinjector , said mechanical resonator being suitable for detecting contact between said projection and said substrate , - a means for controlling said mechanical resonator , which control means is connected to: - a means for energizing said mechanical resonator , which energization means is suitable for making said mechanical resonator oscillate at an oscillation frequency (fi), such that said projection oscillates between a low position in which said projection is in contact with said substrate and a high position in which said projection and said substrate are not in contact, - a detector means suitable for detecting said oscillation of said mechanical resonator , and - a regulating means suitable for adjusting said contact between said projection and said substrate by controlling said oscillation of said mechanical resonator , said regulating means being connected to a first movement means for said regulation, which movement means is suitable for at least bringing together or moving apart, along a z-axis, said substrate and said nanoinjector .
A nozzle comprising: a rotatable deflector having an underside surface contoured to deliver fluid radially outwardly therefrom; a nozzle body defining an inlet and an outlet, the inlet capable of receiving fluid from a source and the outlet capable of delivering fluid to the underside surface of the deflector to cause rotation of the deflector ; and a brake disposed within the deflector for maintaining rotation of the deflector at a relatively constant speed regardless of flow rate through the nozzle body and regardless of temperature; wherein the brake comprises a first body that rotates with the deflector , a second body that is fixed against rotation, and a brake pad disposed between the first body and the second body ; wherein the brake pad defines a bore therethrough, has a bottommost surface defining an inner ring for engagement with the first body to reduce deflector rotation at low power input, and has an outermost lip for engagement with the first body to reduce deflector rotation at high power input, the outermost lip being thicker than the remainder of the brake pad ; wherein the outermost lip includes a horizontal lip at the bottom surface of the brake pad such that, at high power input, the first body is urged into frictional engagement with the horizontal lip , the horizontal lip limiting frictional engagement of the first body . a rotatable deflector having an underside surface contoured to deliver fluid radially outwardly therefrom; a nozzle body defining an inlet and an outlet, the inlet capable of receiving fluid from a source and the outlet capable of delivering fluid to the underside surface of the deflector to cause rotation of the deflector ; and a brake disposed within the deflector for maintaining rotation of the deflector at a relatively constant speed regardless of flow rate through the nozzle body and regardless of temperature; wherein the brake comprises a first body that rotates with the deflector , a second body that is fixed against rotation, and a brake pad disposed between the first body and the second body ; wherein the brake pad defines a bore therethrough, has a bottommost surface defining an inner ring for engagement with the first body to reduce deflector rotation at low power input, and has an outermost lip for engagement with the first body to reduce deflector rotation at high power input, the outermost lip being thicker than the remainder of the brake pad ; wherein the outermost lip includes a horizontal lip at the bottom surface of the brake pad such that, at high power input, the first body is urged into frictional engagement with the horizontal lip , the horizontal lip limiting frictional engagement of the first body .
A Bluetooth receiver (30; 300), comprising: processing circuitry configured to receive a receive signal and to determine receive symbols based on the receive signal; and control circuitry configured to determine a frequency offset and a modulation index related to a frequency of the receive signal based on the receive signal, and to control an operation mode of the processing circuitry based on the determined frequency offset and the modulation index of the receive signal, wherein the control circuitry comprises: phase lock detector circuitry configured to determine the frequency offset of the receive signal based on a frequency of the receive signal; and modulation index tracker circuitry configured to determine the modulation index of the receive signal. processing circuitry configured to receive a receive signal and to determine receive symbols based on the receive signal; and control circuitry configured to determine a frequency offset and a modulation index related to a frequency of the receive signal based on the receive signal, and to control an operation mode of the processing circuitry based on the determined frequency offset and the modulation index of the receive signal, wherein the control circuitry comprises: phase lock detector circuitry configured to determine the frequency offset of the receive signal based on a frequency of the receive signal; and modulation index tracker circuitry configured to determine the modulation index of the receive signal. phase lock detector circuitry configured to determine the frequency offset of the receive signal based on a frequency of the receive signal; and modulation index tracker circuitry configured to determine the modulation index of the receive signal.
Gas-metering valve for metered dispensing of gaseous fuel, having a housing in which a gas space with an inlet opening and an outlet opening is formed, wherein a valve element is arranged in a longitudinally movable manner in the gas space , said valve element opening and closing the inlet opening by way of its longitudinal movement, wherein the valve element has a sealing surface by way of which the valve element interacts with a valve seat , wherein an elastomer is applied to the sealing surface in order for the inlet opening to be closed off in a gas-tight manner in relation to the gas space , and wherein the valve element is able to be moved by an electrical actuator , and having a nozzle needle which is arranged in the gas space and interacts with a nozzle seat for opening and closing the outlet opening , wherein a coupling sleeve is arranged between the valve element and the nozzle needle , said coupling sleeve transmitting the longitudinal movement of the valve element to the nozzle needle , characterized in that the coupling sleeve is received without play in a receiving opening of the valve element .
A pressure measuring device for a tyre (P), comprising: an electronic circuit that is distributed on a first face (20.1) and a second face (20.2) of an electronic board and that includes a pressure sensor mounted on the first face of the electronic board; at least one antenna (26.1, 26.2) connected to the electronic circuit; a first part (10.1) of housing at least partially covering the first face such that together they delimit a first volume (V1) and comprising at least one first channel fluidically connecting the first volume to the outside; and a second part (10.2) of the housing at least partially covering the second face such that together they delimit a second volume (V2) and having at least one bottom for rest against an inner surface of the tyre, the second housing part being arranged in such a manner that the antenna projects laterally at least with respect to said second housing part and that the device has a centre of gravity located in the second volume spaced apart from the electronic board. an electronic circuit that is distributed on a first face (20.1) and a second face (20.2) of an electronic board and that includes a pressure sensor mounted on the first face of the electronic board; at least one antenna (26.1, 26.2) connected to the electronic circuit; a first part (10.1) of housing at least partially covering the first face such that together they delimit a first volume (V1) and comprising at least one first channel fluidically connecting the first volume to the outside; and a second part (10.2) of the housing at least partially covering the second face such that together they delimit a second volume (V2) and having at least one bottom for rest against an inner surface of the tyre, the second housing part being arranged in such a manner that the antenna projects laterally at least with respect to said second housing part and that the device has a centre of gravity located in the second volume spaced apart from the electronic board.
A lyophilized degarelix drug substance consisting of degarelix, 4.5 to 10.0 % (w/w) acetic acid, a residual amount of water, and impurities due to the production process, if any, which shows, upon dissolution in water in an amount of 20 mg degarelix free base/ml of water containing 2.5 wt.% mannitol, a viscosity of up to 3.2 mPas, wherein the viscosity is measured using a rotating viscometer equipped with a cone-plate measuring system with D=60 mm and 1°, the shear rate being increased from 0 to 500 s-1 in 20 steps, using a controlled rate rotation step program at a constant temperature of 20+ -0.2°C.