mhurhangee/ep-ind-claims huggingface dataset:
A motorcycle helmet, comprising: a helmet body having an open portion formed at a front thereof; and a pivotal sun visor based on a pivoting unit provided to at least one of right and left side of the open portion to shield a part of the open portion, wherein the pivoting unit includes: a mounting portion having an arc-type rim formed at one end thereof, the mounting portion having dents inwardly dented at both ends of the arc-type rim and a protrusion outwardly protruding at a center of the arc-type rim; a buffering portion having one end pivotally coupled to the other end of the mounting portion so that an elastic force is applied to the other end of the buffering portion in a direction away from the arc-type rim; and an operating unit having one end coupled to the sun visor, the operating unit being pivotally coupled to the other end of the buffering portion, the operating unit having a movable projection formed at one end thereof to move in contact with the arc-type rim when the operating unit is pivoting. a helmet body having an open portion formed at a front thereof; and a pivotal sun visor based on a pivoting unit provided to at least one of right and left side of the open portion to shield a part of the open portion, wherein the pivoting unit includes: a mounting portion having an arc-type rim formed at one end thereof, the mounting portion having dents inwardly dented at both ends of the arc-type rim and a protrusion outwardly protruding at a center of the arc-type rim; a buffering portion having one end pivotally coupled to the other end of the mounting portion so that an elastic force is applied to the other end of the buffering portion in a direction away from the arc-type rim; and an operating unit having one end coupled to the sun visor, the operating unit being pivotally coupled to the other end of the buffering portion, the operating unit having a movable projection formed at one end thereof to move in contact with the arc-type rim when the operating unit is pivoting. a mounting portion having an arc-type rim formed at one end thereof, the mounting portion having dents inwardly dented at both ends of the arc-type rim and a protrusion outwardly protruding at a center of the arc-type rim; a buffering portion having one end pivotally coupled to the other end of the mounting portion so that an elastic force is applied to the other end of the buffering portion in a direction away from the arc-type rim; and an operating unit having one end coupled to the sun visor, the operating unit being pivotally coupled to the other end of the buffering portion, the operating unit having a movable projection formed at one end thereof to move in contact with the arc-type rim when the operating unit is pivoting.
Method for producing an injection device having a bypass channel, comprising the following steps: placing a preform in a tool so that the preform partially rests with a cylindrical outer surface of a cylindrical portion in the tool; characterized by heating a section of the cylindrical portion with a heat source of the tool to a temperature so that the material of the preform can be plastically deformed; inserting a punch into the cylindrical portion, substantially in an axial direction; displacing the punch in a radial direction onto a cylindrical inner surface of the cylindrical portion of the preform; pressing the punch into the heated section of the cylindrical portion so that, by a pressure of the punch in the radial direction, the bypass channel is formed by plastic deformation of the heated section. placing a preform in a tool so that the preform partially rests with a cylindrical outer surface of a cylindrical portion in the tool; characterized by heating a section of the cylindrical portion with a heat source of the tool to a temperature so that the material of the preform can be plastically deformed; inserting a punch into the cylindrical portion, substantially in an axial direction; displacing the punch in a radial direction onto a cylindrical inner surface of the cylindrical portion of the preform; pressing the punch into the heated section of the cylindrical portion so that, by a pressure of the punch in the radial direction, the bypass channel is formed by plastic deformation of the heated section.
An optical arrangement for oblique plane microscopy, the optical arrangement comprising: a first optical subassembly, including an objective lens arranged to receive light from a sample in use, and configured to produce an intermediate image of the sample, wherein only a part of the available numerical aperture of the objective lens is used to image the sample at an oblique angle, while another part of the objective lens is used to illuminate the sample at a different angle; and a second optical subassembly focused on the intermediate image, the optical axis of the second optical subassembly being at an angle to the optical axis of the first optical subassembly at the point of the intermediate image, such that the second optical subassembly images an oblique plane in the intermediate image, wherein the oblique plane in the intermediate image is normal to the optical axis of the second subassembly, and the oblique plane in the intermediate image corresponds to an oblique plane in the sample. a first optical subassembly, including an objective lens arranged to receive light from a sample in use, and configured to produce an intermediate image of the sample, wherein only a part of the available numerical aperture of the objective lens is used to image the sample at an oblique angle, while another part of the objective lens is used to illuminate the sample at a different angle; and a second optical subassembly focused on the intermediate image, the optical axis of the second optical subassembly being at an angle to the optical axis of the first optical subassembly at the point of the intermediate image, such that the second optical subassembly images an oblique plane in the intermediate image, wherein the oblique plane in the intermediate image is normal to the optical axis of the second subassembly, and the oblique plane in the intermediate image corresponds to an oblique plane in the sample.
A steamer comprising: a handle having a hinge formed at one end in a longitudinal direction thereof, the hinge protruding in a direction orthogonal to the longitudinal direction; and a head which is rotatably connected to the hinge and is configured to spray steam; characterized in that the steamer further comprises a motor which is configured to rotate the head about the hinge; a sensor which is configured to sense an inclination in the longitudinal direction of the handle with respect to a horizontal line; and a controller which according to the inclination sensed by the sensor, is configured to operate the motor to rotate the head to a position at which the head sprays steam horizontally. a handle having a hinge formed at one end in a longitudinal direction thereof, the hinge protruding in a direction orthogonal to the longitudinal direction; and a head which is rotatably connected to the hinge and is configured to spray steam; characterized in that the steamer further comprises a motor which is configured to rotate the head about the hinge; a sensor which is configured to sense an inclination in the longitudinal direction of the handle with respect to a horizontal line; and a controller which according to the inclination sensed by the sensor, is configured to operate the motor to rotate the head to a position at which the head sprays steam horizontally.
Stand-up unit with a support and a stand-up mount which is articulated to the support and has a seat carrier carrying a seat, a backrest carrier carrying a backrest, a first lever parallelogram to hold the backrest upright both in the sitting position and in the standing position of the user, and means for moving the backrest to the trailing end of the seat during a change from the sitting position to the standing position, the first lever parallelogram having a first double-armed parallelogram lever and a second double-armed parallelogram lever, characterized in that arms (43, 53) of the two double-armed parallelogram levers (41, 49) form a second lever parallelogram with two further levers (55, 57), in that the common pivot point of the two lever parallelograms (27, 29) is connected in an articulated manner to a first point of the support via a third further lever and in that the common pivot point of the aforementioned two further levers (55, 57) of the second parallelogram is connected to a second point of the support.
High-pressure auto-thermal system for reforming alcohol and producing hydrogen, comprising (a) an alcohol auto-thermal reforming unit for alcohol auto-thermal reforming and hydrogen production, (b) a hydrogen separation unit, and (c) a boiler unit for combustion of hydrogen and combustible gases, characterized in that - the auto-thermal reforming unit is an adiabatic fixed bed reactor arranged in a cylindrical envelope of metal alloy, the reactor comprising a catalytic bed, an alcohol and steam inlet, an oxygen inlet, a non-return valve arranged in the oxygen inlet, a divergent nozzle with increasing size up to the diameter of the cylindrical envelope, wherein the auto-thermal reforming unit comprises a Venturi type mixing element and a distributor ring which doses the oxygen in the Venturi type mixing element or a lance creating a Venturi throat; - the boiler unit is an atmospheric water tube boiler with flame combustion where combustible gases are burned comprising internal coils for evaporating and overheating the alcohol/water reactive mixture; - the hydrogen separation unit is a membrane-based hydrogen separation unit; wherein the membranes are hydrogen permeable separation membranes for separating the gas into pure hydrogen and into combustible exhaust gases which are sent to the boiler; and wherein the membranes are integrated in the auto-thermal reforming unit or positioned between the auto-thermal reforming unit and the boiler unit. - the auto-thermal reforming unit is an adiabatic fixed bed reactor arranged in a cylindrical envelope of metal alloy, the reactor comprising a catalytic bed, an alcohol and steam inlet, an oxygen inlet, a non-return valve arranged in the oxygen inlet, a divergent nozzle with increasing size up to the diameter of the cylindrical envelope, wherein the auto-thermal reforming unit comprises a Venturi type mixing element and a distributor ring which doses the oxygen in the Venturi type mixing element or a lance creating a Venturi throat; - the boiler unit is an atmospheric water tube boiler with flame combustion where combustible gases are burned comprising internal coils for evaporating and overheating the alcohol/water reactive mixture; - the hydrogen separation unit is a membrane-based hydrogen separation unit; wherein the membranes are hydrogen permeable separation membranes for separating the gas into pure hydrogen and into combustible exhaust gases which are sent to the boiler; and wherein the membranes are integrated in the auto-thermal reforming unit or positioned between the auto-thermal reforming unit and the boiler unit.
An OCT system (300, 600, 700, 800, 1000), comprising: a light source; a multi-focal delay line (352, 400), comprising: a positive lens having a focal plane (4000, 4100), and an optical switch configured to receive a sample light produced from the light from the light source and to direct the sample light to the positive lens, wherein the positive lens is further configured to direct the sample light to an object to be measured; and a light detector (350, 650, 850) configured to receive the return light returned from the object to be measured in response to the sample light being directed to the object to be measured via the positive lens, and to receive a reference light produced from the light from the light source, and in response thereto to detect at least one interference signal; characterized in that the optical switch is configured to selectively direct the sample light to the positive lens via a selected one of a plurality of light interfaces (461, 462, 463, 464) each located a different distance from the focal plane of the positive lens. a light source; a multi-focal delay line (352, 400), comprising: a positive lens having a focal plane (4000, 4100), and an optical switch configured to receive a sample light produced from the light from the light source and to direct the sample light to the positive lens, wherein the positive lens is further configured to direct the sample light to an object to be measured; and a positive lens having a focal plane (4000, 4100), and an optical switch configured to receive a sample light produced from the light from the light source and to direct the sample light to the positive lens, wherein the positive lens is further configured to direct the sample light to an object to be measured; and a light detector (350, 650, 850) configured to receive the return light returned from the object to be measured in response to the sample light being directed to the object to be measured via the positive lens, and to receive a reference light produced from the light from the light source, and in response thereto to detect at least one interference signal; characterized in that the optical switch is configured to selectively direct the sample light to the positive lens via a selected one of a plurality of light interfaces (461, 462, 463, 464) each located a different distance from the focal plane of the positive lens.
An inverter connected to an energy source, the energy source comprising at least one renewable power source, and configured to supply power to a load network comprising at least one controllable load, said inverter comprising a processor adapted to control the at least one controllable load of the load network, the processor comprising: a net load detector adapted to detect a net load of the load network; a power export analyzer adapted to determine an inverter power transfer (P1, P3) of the inverter and a grid power transfer of a grid; and a power manager adapted to vary a power output of the inverter and a power consumption of the at least one controllable load based on the determined inverter power transfer (P1, P3), the determined grid power transfer, an export condition violation and a derating state of the energy source; wherein the power manager is adapted to perform the following steps: decreasing power consumption of the at least one controllable load depending on the grid power transfer, if the energy source is not in the derating state, under a presence of the grid power transfer and no export condition violation; checking the derating state of the energy source; and increasing the power of the at least one controllable load by a predefined value if the energy source is in the derating state. a net load detector adapted to detect a net load of the load network; a power export analyzer adapted to determine an inverter power transfer (P1, P3) of the inverter and a grid power transfer of a grid; and a power manager adapted to vary a power output of the inverter and a power consumption of the at least one controllable load based on the determined inverter power transfer (P1, P3), the determined grid power transfer, an export condition violation and a derating state of the energy source; wherein the power manager is adapted to perform the following steps: decreasing power consumption of the at least one controllable load depending on the grid power transfer, if the energy source is not in the derating state, under a presence of the grid power transfer and no export condition violation; checking the derating state of the energy source; and increasing the power of the at least one controllable load by a predefined value if the energy source is in the derating state. decreasing power consumption of the at least one controllable load depending on the grid power transfer, if the energy source is not in the derating state, under a presence of the grid power transfer and no export condition violation; checking the derating state of the energy source; and increasing the power of the at least one controllable load by a predefined value if the energy source is in the derating state.
A method for assigning channels to downlink temporary block flows TBFs, comprising: a.) when downlink packet service data arrive at an access network side, acquiring, by the access network side according to a buffered data amount, buffered at the access network side, of each downlink TBF carried on each packet data channel PDCH and according to mapping relationships between the downlink TBFs and the PDCHs, loads of the PDCHs, and selecting a PDCH having a light load from the PDCHs as a first PDCH, wherein the load of each PDCH is a sum of buffered data amounts of all downlink TBFs carried on the corresponding PDCH and the PDCH having the light load is a PDCH with the lightest load among the PDCHs or a PDCH whose load is lower than a threshold among the PDCHs; and b.) sending, to a user equipment, a first assignment message carrying information about the first PDCH, so that the user equipment receives the downlink packet service data on the first PDCH according to the first assignment message. a.) when downlink packet service data arrive at an access network side, acquiring, by the access network side according to a buffered data amount, buffered at the access network side, of each downlink TBF carried on each packet data channel PDCH and according to mapping relationships between the downlink TBFs and the PDCHs, loads of the PDCHs, and selecting a PDCH having a light load from the PDCHs as a first PDCH, wherein the load of each PDCH is a sum of buffered data amounts of all downlink TBFs carried on the corresponding PDCH and the PDCH having the light load is a PDCH with the lightest load among the PDCHs or a PDCH whose load is lower than a threshold among the PDCHs; and b.) sending, to a user equipment, a first assignment message carrying information about the first PDCH, so that the user equipment receives the downlink packet service data on the first PDCH according to the first assignment message.
Electronically controlled pneumatic brake system for an automotive vehicle, said system comprising: - a service brake electric input device delivering a first electric signal; - a main electronic control unit adapted to process the first electric signal; - at least one pneumatic service brake actuator (4F, 4R) driving a respective brake mechanism (2F, 2R) and being fed with air under pressure to fulfill a service brake function; - at least one electronic brake module (18F, 18R) adapted to provide air under pressure to said pneumatic service brake actuator, said electronic brake module being controlled electronically (S24F, S24R) by said main electronic control unit and pneumatically, via a pneumatic control line, with air under pressure; - an air production module selectively providing air under pressure to said electronic brake module; said braking system being characterized by at least one backup valve system dedicated to feeding said electronic brake module (18F, 18R) with control air under pressure, via said pneumatic control line. - a service brake electric input device delivering a first electric signal; - a main electronic control unit adapted to process the first electric signal; - at least one pneumatic service brake actuator (4F, 4R) driving a respective brake mechanism (2F, 2R) and being fed with air under pressure to fulfill a service brake function; - at least one electronic brake module (18F, 18R) adapted to provide air under pressure to said pneumatic service brake actuator, said electronic brake module being controlled electronically (S24F, S24R) by said main electronic control unit and pneumatically, via a pneumatic control line, with air under pressure; - an air production module selectively providing air under pressure to said electronic brake module;
Base brick for laying foundations, comprising: - On the upper face thereof, two tapered cavities (a), an indentation (e), a perimetrical frame (g) and two channels (f); - On the lower face thereof, four feet (c), an indentation (e), a perimetrical frame (g) and two channels (f); Characterized in that - On the side faces thereof, twelve separating pegs (b), being four pegs on each of the two long sides and two pegs on each of the short sides and twelve guiding wedges (d) associated with the separating pegs (b). - On the upper face thereof, two tapered cavities (a), an indentation (e), a perimetrical frame (g) and two channels (f); - On the lower face thereof, four feet (c), an indentation (e), a perimetrical frame (g) and two channels (f); Characterized in that - On the side faces thereof, twelve separating pegs (b), being four pegs on each of the two long sides and two pegs on each of the short sides and twelve guiding wedges (d) associated with the separating pegs (b).
A seated invalid appliance with a stowable backrest arrangement, wherein the appliance has side restraints and includes a linkage arrangement (9, 11) between the backrest and the side restraints such that as the backrest moves between a deployed and stowed configuration the side restraints correspondingly move between a restraint position and a stowed position; wherein the side restraints comprise curved side struts, and are provided with an elongate arcuate guide comprising an elongate arcuate slot for guiding movement of a guide member carried by the backrest arrangement; wherein the backrest arrangement and the side restraints are pivotally mounted at spaced locations to a common frame member of the seated invalid appliance, characterised in that the seated invalid appliance further comprises locking means for locking the backrest in the stowed position and the deployed position.
A bumper beam with a threaded fastening socket for a threaded tow eyelet, wherein the bumper beam, at least in its fastening region, is of generally U-shaped cross-section with its crown pointing outwards and has a transverse bulkhead fastened between the crown's sides (12,13) and the threaded fastening socket is parallel with the bulkhead and welded firmly to the bulkhead, characterized in, that the bulkhead is welded firmly in the bumper beam by being welded to the two sides (12,13) of the crown, and that the bulkhead is transverse to the bumper beam.
A closed engine cooled by fan, of the type comprising: a shaft, which defines a longitudinal axis of the engine; inside a closed volume delimited axially by first and second transverse partitions and radially by an axial wall constituting a carcass of the engine, a stator, secured to the axial wall, and a rotor, secured to the shaft; and, outside the closed volume, a network of channels, which circulate on or in the axial wall, and a fan, which is arranged on an outer side of the first transverse partition, which is mounted on the shaft and which circulates cooling air through the network of channels to cool the stator, the fan and the network of channels being a first fan and a first network of channels, said engine further comprises, outside the closed volume, a second network of channels, which circulate on or in the axial wall, and a second fan, which is arranged on an outer side of the second transverse partition, which is mounted on the shaft and which circulates cooling air in the second network of channels to cool the stator, characterized in that the first and second transverse partitions are respectively constituted by the first and second fans (222, 223), in that the channels of the first and second networks of channels circulate through the stator, and in that the engine is symmetrical relative to a median plane transverse to the axis of the engine, so as to create two flows (F1, F2) of coolant that circulate longitudinally through the stator in opposite directions.