mhurhangee/patent-ind-claim-en huggingface dataset:
Backflow safeguard unit for a water appliance with a first duct having a first end connectable to a water supply and a second end connectable to the water appliance and with a first safety unit located in said first duct with a first filter unit for filtering water flowing from the first end to the second end and a first anti-pollution check valve for preventing water from flowing from the second end to the first end , characterized by a first junction located in the first duct between the first end and the first anti-pollution check valve and a second junction located in the first duct between the first anti-pollution check valve and the second end , a second duct connecting the first junction and the second junction , a second filter unit in the second duct for filtering water flowing from the second junction to the first junction and a second anti-pollution check valve in the second duct for preventing water from flowing from the first junction to the second junction .
A device for separating liquid from a gas stream within a liquid injected vacuum pump or compressor, said device comprising: - two communicating vessels having a bottom plate and a lateral wall extending from said bottom plate and having a height H1, said two vessels having a common section extending over at least a part of said height H1, wherein the common section is created by cutting said lateral wall along the height H1 so as to create two wall parts and adjoining said wall parts over at least a part of said height H1; - an inlet opening positioned on the opposite side of the common section ; - at least two bucket shaped vessels , each provided within one of the two communicating vessels ; - a lid comprising an outlet opening ; characterized in that : - at least one of the two bucket shaped vessels forms a fluid passage between the wall of the communicating vessel and the wall of the bucket shaped vessel for allowing a fluid to pass there through; - the device further comprising a filter vessel positioned between the outlet opening and the common section , onto which the lid is mounted and whereby the filter vessel comprises a supporting plate comprising at least one hole for receiving a liquid filter therein. - two communicating vessels having a bottom plate and a lateral wall extending from said bottom plate and having a height H1, said two vessels having a common section extending over at least a part of said height H1, wherein the common section is created by cutting said lateral wall along the height H1 so as to create two wall parts and adjoining said wall parts over at least a part of said height H1; - an inlet opening positioned on the opposite side of the common section ; - at least two bucket shaped vessels , each provided within one of the two communicating vessels ; - a lid comprising an outlet opening ; - at least one of the two bucket shaped vessels forms a fluid passage between the wall of the communicating vessel and the wall of the bucket shaped vessel for allowing a fluid to pass there through; - the device further comprising a filter vessel positioned between the outlet opening and the common section , onto which the lid is mounted and whereby the filter vessel comprises a supporting plate comprising at least one hole for receiving a liquid filter therein.
Use of a compound selected from the compounds represented by the formulas (A), (B), (C), and (F): wherein R 1 is hydrogen, a halogen atom, methyl, ethyl, propyl or a C 1-6 alkylthio group, R 2 is hydrogen, methyl, ethyl or propyl, and R 3 is hydrogen, methyl, ethyl or propyl, or a salt thereof as an animal repellent, wherein the animal is a mammal. R 1 is hydrogen, a halogen atom, methyl, ethyl, propyl or a C 1-6 alkylthio group, R 2 is hydrogen, methyl, ethyl or propyl, and R 3 is hydrogen, methyl, ethyl or propyl, or a salt thereof as an animal repellent, wherein the animal is a mammal.
An imaging optical system comprising: an aperture stop; an image-forming optical system configured to cause an image to be formed toward an imaging plane of an image sensor ; and an optical phase modulator that includes a substance having a birefringence index, and gives two pupil functions to the image-forming optical system , characterized in that the following conditional expressions are satisfied: 1 ≤ 2 × L × tan w + D / D < 1.4 λ / 4 * 0.75 < Re < λ / 4 * 1.1 where L: a distance between the aperture stop and the optical phase modulator; D: an aperture diameter of the aperture stop; w: a maximum angle of incidence of a principal light ray that enters the aperture stop; λ: a wavelength of light; and Re: phase retardation caused by birefringence of the optical phase modulator. an aperture stop; an image-forming optical system configured to cause an image to be formed toward an imaging plane of an image sensor ; and an optical phase modulator that includes a substance having a birefringence index, and gives two pupil functions to the image-forming optical system , characterized in that the following conditional expressions are satisfied: 1 ≤ 2 × L × tan w + D / D < 1.4 λ / 4 * 0.75 < Re < λ / 4 * 1.1 where L: a distance between the aperture stop and the optical phase modulator; D: an aperture diameter of the aperture stop; w: a maximum angle of incidence of a principal light ray that enters the aperture stop; λ: a wavelength of light; and Re: phase retardation caused by birefringence of the optical phase modulator. L: a distance between the aperture stop and the optical phase modulator; D: an aperture diameter of the aperture stop; w: a maximum angle of incidence of a principal light ray that enters the aperture stop; λ: a wavelength of light; and Re: phase retardation caused by birefringence of the optical phase modulator.
Drive unit for motor vehicle applications, in particular motor vehicle closing devices, comprising an electric motor and at least one drive element driven by the electric motor , and comprising an operating lever interacting with the drive element , the drive element and optionally the operating lever being designed so as to be rotatable about an axis , and a rotatably mounted intermediate element being provided between the drive element and the operating lever , the intermediate element being designed as a friction-reducing rolling element , the rolling element being mounted so as to be rotatable about an axis in or on the operating lever , the axis of the rolling element being oriented predominantly in parallel with the surface of an operating ramp on the drive element , the drive element being designed as a drive pulley which is rotatable about an axis , the operating ramp being provided on an eccentric cam , characterized in that the operating ramp on the eccentric cam runs in a spiral plane.
Hand-operated cutting machine, in particular power handsaw or wall groove milling tool, with a guide element , in particular a guide plate , which can be placed on a base by its underside, and with a drive assembly having a drive motor located in a machine housing and a tool holder for a cutting tool , in particular a saw blade, which can be guided in a working direction (A) to produce a parting cut in the workpiece, wherein the drive assembly is mounted on the guide element for pivoting by means of a mitre bearing assembly about a mitre axis (GA) extending parallel to the working direction (A), which mitre bearing assembly comprises a front mitre bearing as viewed in the working direction (A) and a rear mitre bearing as viewed in the working direction (A) at a longitudinal distance from the front mitre bearing , on which mitre bearings the drive assembly is mounted for pivoting about the mitre axis (GA), wherein the front mitre bearing is located between the axis of rotation (D) of the tool holder and an outer circumference of the cutting tool , characterised in that the tool holder is mounted movably between an upper depth setting position and at least one lower depth setting position in a depth setting direction or cutting depth direction with respect to the guide element by means of a depth setting bearing , wherein a pivot axis (SA) of the depth setting bearing is located outside the longitudinal distance between the mitre bearings .
A gas turbine engine article comprising: a wall and a rib that are formed of a ceramic matrix composite ("CMC"), the wall circumscribing an internal cavity for receiving cooling air, the rib connecting opposed first and second sides of the wall ; and a shield disposed in the internal cavity and at least partially enclosing the rib to shield the rib from the cooling air; characterized in that the shield includes a spring clip that pinches onto the rib , securing the shield to the rib . a wall and a rib that are formed of a ceramic matrix composite ("CMC"), the wall circumscribing an internal cavity for receiving cooling air, the rib connecting opposed first and second sides of the wall ; and a shield disposed in the internal cavity and at least partially enclosing the rib to shield the rib from the cooling air; characterized in that the shield includes a spring clip that pinches onto the rib , securing the shield to the rib .
A cockpit module comprising; a crash pad (P); a sterilizing apparatus; a speaker (S) disposed on the crash pad (P); and a cover (C) disposed to cover the speaker (S), wherein the sterilizing apparatus detachably disposed on the crash pad (P), and the cover (C) includes a hole (H) disposed to face an inlet port and an outlet port of the sterilizing apparatus; the sterilizing apparatus comprising: a housing including an inlet port , an outlet port , a flow channel (CH) connecting the inlet port and the outlet port , and a hole communicating with the flow channel (CH); a filter module disposed in the flow channel (CH); a sterilization unit configured to emit ultraviolet rays toward the filter module ; and a fan configured to move air introduced through the inlet port to the outlet port , wherein the filter module is inserted into and installed in the housing through the hole . a crash pad (P); a sterilizing apparatus; a speaker (S) disposed on the crash pad (P); and a cover (C) disposed to cover the speaker (S), wherein the sterilizing apparatus detachably disposed on the crash pad (P), and the cover (C) includes a hole (H) disposed to face an inlet port and an outlet port of the sterilizing apparatus; the sterilizing apparatus comprising: a housing including an inlet port , an outlet port , a flow channel (CH) connecting the inlet port and the outlet port , and a hole communicating with the flow channel (CH); a filter module disposed in the flow channel (CH); a sterilization unit configured to emit ultraviolet rays toward the filter module ; and a fan configured to move air introduced through the inlet port to the outlet port , wherein the filter module is inserted into and installed in the housing through the hole . a housing including an inlet port , an outlet port , a flow channel (CH) connecting the inlet port and the outlet port , and a hole communicating with the flow channel (CH); a filter module disposed in the flow channel (CH); a sterilization unit configured to emit ultraviolet rays toward the filter module ; and a fan configured to move air introduced through the inlet port to the outlet port , wherein the filter module is inserted into and installed in the housing through the hole .
An electrode shaping apparatus comprising: a sheet transfer unit configured to move an electrode sheet at a predetermined speed; a fixing unit configured to fix the electrode sheet ; and a punch unit including: a center punching unit configured to remove a central part of the electrode sheet ; and a side punching unit configured to remove a portion of an outer periphery of the electrode sheet by notching, wherein the center punching unit comprises a hole punching member and a notching pilot pin , wherein the center punching unit comprises: a rectangular parallelepiped main body having a major axis in a movement direction of the electrode sheet ; the hole punching member formed at a rear end of the main body in the movement direction of the electrode sheet ; and the notching pilot pin formed under a front end of the main body in the movement direction of the electrode sheet , wherein a pin punching portion is configured to punch a catching recess in the electrode sheet, in which the notching pilot pin is configured to be caught. a sheet transfer unit configured to move an electrode sheet at a predetermined speed; a fixing unit configured to fix the electrode sheet ; and a punch unit including: a center punching unit configured to remove a central part of the electrode sheet ; and a side punching unit configured to remove a portion of an outer periphery of the electrode sheet by notching, wherein the center punching unit comprises a hole punching member and a notching pilot pin , a center punching unit configured to remove a central part of the electrode sheet ; and a side punching unit configured to remove a portion of an outer periphery of the electrode sheet by notching, wherein the center punching unit comprises a hole punching member and a notching pilot pin , a rectangular parallelepiped main body having a major axis in a movement direction of the electrode sheet ; the hole punching member formed at a rear end of the main body in the movement direction of the electrode sheet ; and the notching pilot pin formed under a front end of the main body in the movement direction of the electrode sheet , wherein a pin punching portion is configured to punch a catching recess in the electrode sheet, in which the notching pilot pin is configured to be caught.
A flight vehicle comprising: an upstream portion ; and a downstream portion aft of the upstream portion; wherein one of the portions has a local variation in surface shape, whereby the local variation in surface shape produces a shock in supersonic flow; wherein one or both of the portions have one or more holes , downstream of the shock produced by the local variation in surface shape, in fluid communication with a cavity defined at least in part by the portions, and between the portions; wherein the local variation in surface shape includes a variation in diameter providing a reduced diameter for the upstream portion at an aft end of the upstream portion, the reduced diameter being less than a relatively wide diameter of the upstream portion forward of the aft end; wherein a forward end of the downstream portion has a shoulder that extends radially out further than the aft end of the upstream portion; and wherein the shock is produced forward of the shoulder. an upstream portion ; and a downstream portion aft of the upstream portion; wherein one of the portions has a local variation in surface shape, whereby the local variation in surface shape produces a shock in supersonic flow; wherein one or both of the portions have one or more holes , downstream of the shock produced by the local variation in surface shape, in fluid communication with a cavity defined at least in part by the portions, and between the portions; wherein the local variation in surface shape includes a variation in diameter providing a reduced diameter for the upstream portion at an aft end of the upstream portion, the reduced diameter being less than a relatively wide diameter of the upstream portion forward of the aft end; wherein a forward end of the downstream portion has a shoulder that extends radially out further than the aft end of the upstream portion; and wherein the shock is produced forward of the shoulder.
A communication method, comprising: determining (S310), by a terminal , to transmit first uplink control information and second uplink control information in a target time unit, wherein the terminal uses a first uplink control channel when individually transmitting the first uplink information in the target time unit, and the terminal uses a second uplink control channel when individually transmitting the second uplink control information in the a target time unit, and a number of time domain symbols included in the first uplink control channel is greater than a number of time domain symbols included in the second uplink control channel; using (S320), by the terminal , target time domain symbols in the first uplink control channel to transmit the second uplink control information in the target time unit, wherein the target time domain symbols are at least some time domain symbols from among the time domain symbols used for transmitting reference symbols in the first uplink control channel; using (S330), by the terminal , time domain symbols, other than the time domain symbols for transmitting reference symbols in the first uplink control channel to transmit the first uplink control information in the target time unit. determining (S310), by a terminal , to transmit first uplink control information and second uplink control information in a target time unit, wherein the terminal uses a first uplink control channel when individually transmitting the first uplink information in the target time unit, and the terminal uses a second uplink control channel when individually transmitting the second uplink control information in the a target time unit, and a number of time domain symbols included in the first uplink control channel is greater than a number of time domain symbols included in the second uplink control channel; using (S320), by the terminal , target time domain symbols in the first uplink control channel to transmit the second uplink control information in the target time unit, wherein the target time domain symbols are at least some time domain symbols from among the time domain symbols used for transmitting reference symbols in the first uplink control channel; using (S330), by the terminal , time domain symbols, other than the time domain symbols for transmitting reference symbols in the first uplink control channel to transmit the first uplink control information in the target time unit.
A first Relay Node, RN, comprising: a cellular transceiver configured to communicate with a Donor evolved Node B, DeNB, over a cellular frequency band of a Primary cell, PCell, said cellular frequency band below 6 GHz; a millimeter-wave, mmWave, transceiver configured to communicate with a second RN via a backhaul link over a mmWave frequency band of a Secondary cell, SCell, within the PCell; and a controller configured to process a Relay-Physical-Downlink-Control-Channel, R- PDCCH, message received by the cellular transceiver over the cellular frequency band of the PCell during a Transmit Time Interval, TTI, wherein the R-PDCCH message comprises cross-carrier scheduling information to schedule a downlink allocation over the backhaul link between the first RN and the second RN , wherein the R-PDCCH message is configured to schedule reception of a data packet at the first RN from the second RN over the backhaul link during the TTI, wherein the controller is configured to trigger the mmWave transceiver to receive the data packet from the second RN via the backhaul link during the TTI. a cellular transceiver configured to communicate with a Donor evolved Node B, DeNB, over a cellular frequency band of a Primary cell, PCell, said cellular frequency band below 6 GHz; a millimeter-wave, mmWave, transceiver configured to communicate with a second RN via a backhaul link over a mmWave frequency band of a Secondary cell, SCell, within the PCell; and a controller configured to process a Relay-Physical-Downlink-Control-Channel, R- PDCCH, message received by the cellular transceiver over the cellular frequency band of the PCell during a Transmit Time Interval, TTI, wherein the R-PDCCH message comprises cross-carrier scheduling information to schedule a downlink allocation over the backhaul link between the first RN and the second RN , wherein the R-PDCCH message is configured to schedule reception of a data packet at the first RN from the second RN over the backhaul link during the TTI, wherein the controller is configured to trigger the mmWave transceiver to receive the data packet from the second RN via the backhaul link during the TTI.
A mechanically-distributed propulsion system for use in an aircraft , the mechanically-distributed propulsion system comprising: an engine to generate a mechanical drive power; a drive shaft operatively coupled to the engine to receive the mechanical drive power; a direction-reversing transmission having a first rotating shaft and a second rotating shaft , the first rotating shaft operatively coupled to the drive shaft to receive the mechanical drive power, wherein the direction-reversing transmission is configured to redirect the mechanical drive power received at the first rotating shaft from a first direction to face a second direction at the second rotating shaft ; and a propulsor fan coupled to the second rotating shaft to convert the mechanical drive power into thrust, wherein the propulsor fan is coupled to the second rotating shaft via a propulsor fan input drive interface, wherein the mechanically-distributed propulsion system is configured in a reverse orientation where the engine is configured to expel exhaust forward, wherein the engine is coupled to a rear-facing engine exhaust to redirect the exhaust aft. an engine to generate a mechanical drive power; a drive shaft operatively coupled to the engine to receive the mechanical drive power; a direction-reversing transmission having a first rotating shaft and a second rotating shaft , the first rotating shaft operatively coupled to the drive shaft to receive the mechanical drive power, wherein the direction-reversing transmission is configured to redirect the mechanical drive power received at the first rotating shaft from a first direction to face a second direction at the second rotating shaft ; and a propulsor fan coupled to the second rotating shaft to convert the mechanical drive power into thrust, wherein the propulsor fan is coupled to the second rotating shaft via a propulsor fan input drive interface, wherein the mechanically-distributed propulsion system is configured in a reverse orientation where the engine is configured to expel exhaust forward, wherein the engine is coupled to a rear-facing engine exhaust to redirect the exhaust aft.
An assay for detecting an analyte in a biological sample comprising: at least one surface probe linked to the surface of a measuring electrode, the surface probe comprising a nucleic acid sequence complementary to a first target nucleic acid sequence; at least one signal probe comprising a nucleic acid sequence complementary to a second target nucleic acid sequence; and wherein the at least one signal probe comprises a binding element capable of binding a ligand, the ligand being associated with a catalytic element or precursor thereof capable of reacting with a substrate to alter electrical potential of the measuring electrode, wherein the catalytic element comprises catalase, and optionally the substrate comprises hydrogen peroxide; and a reference electrode against which a potential difference between the electrodes is measured wherein the assay further comprises potentiometric measuring apparatus comprising the measuring electrode and the reference electrode. at least one surface probe linked to the surface of a measuring electrode, the surface probe comprising a nucleic acid sequence complementary to a first target nucleic acid sequence; at least one signal probe comprising a nucleic acid sequence complementary to a second target nucleic acid sequence; and wherein the at least one signal probe comprises a binding element capable of binding a ligand, the ligand being associated with a catalytic element or precursor thereof capable of reacting with a substrate to alter electrical potential of the measuring electrode, wherein the catalytic element comprises catalase, and optionally the substrate comprises hydrogen peroxide; and a reference electrode against which a potential difference between the electrodes is measured wherein the assay further comprises potentiometric measuring apparatus comprising the measuring electrode and the reference electrode.