mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a first storage compartment comprising a first storage space defined therein; a door disposed on the first storage compartment to provide access to the first storage space; a drawer-receiving portion defined in the first storage space; a storage drawer configured to be extended in an extended direction from the drawer-receiving portion and to be retracted in a retracted direction into the drawer-receiving portion; and an actuator disposed on a bottom face of the drawer-receiving portion, wherein the actuator is configured to move the storage drawer in the extended direction as the storage drawer is pressed in the retracted direction, characterized in that the actuator comprises: a mounted groove extending along the extended direction and retracted direction; a frictional bracket disposed on the bottom face of the storage drawer and configured to be movable inside the mounted groove based on the extension and the retraction of the storage drawer; and at least one frictional member disposed inside the mounted groove to limit a speed of movement of the storage drawer by frictional resistance with the at least one frictional bracket, wherein a length of the at least one frictional member is less than or equal to half a total length of the mounted groove. a first storage compartment comprising a first storage space defined therein; a door disposed on the first storage compartment to provide access to the first storage space; a drawer-receiving portion defined in the first storage space; a storage drawer configured to be extended in an extended direction from the drawer-receiving portion and to be retracted in a retracted direction into the drawer-receiving portion; and an actuator disposed on a bottom face of the drawer-receiving portion, wherein the actuator is configured to move the storage drawer in the extended direction as the storage drawer is pressed in the retracted direction, characterized in that the actuator comprises: a mounted groove extending along the extended direction and retracted direction; a frictional bracket disposed on the bottom face of the storage drawer and configured to be movable inside the mounted groove based on the extension and the retraction of the storage drawer; and at least one frictional member disposed inside the mounted groove to limit a speed of movement of the storage drawer by frictional resistance with the at least one frictional bracket, wherein a length of the at least one frictional member is less than or equal to half a total length of the mounted groove. a mounted groove extending along the extended direction and retracted direction; a frictional bracket disposed on the bottom face of the storage drawer and configured to be movable inside the mounted groove based on the extension and the retraction of the storage drawer; and at least one frictional member disposed inside the mounted groove to limit a speed of movement of the storage drawer by frictional resistance with the at least one frictional bracket, wherein a length of the at least one frictional member is less than or equal to half a total length of the mounted groove.
A network system, comprising at least one controller and a plurality of forwarding devices, wherein the plurality of forwarding devices forms a plurality of virtual network topologies; characterized in that: the at least one controller is configured to allocate a global label to each of the plurality of virtual network topologies, and send a binding relationship between the global labels and the plurality of virtual network topologies to the plurality of forwarding devices, wherein global labels allocated by the controller to different virtual network topologies of the plurality of virtual network topologies are different; and the plurality of forwarding devices is configured to receive the binding relationship between the global labels and the virtual network topologies, and generate, according to the binding relationship, label forwarding entries comprising a mapping relationship between the global labels and forwarding information bases of the virtual network topologies; and when a first packet received by a forwarding device carries a first global label, the forwarding device finds, by searching according to the first global label, a forwarding information base of a first virtual network topology corresponding to the first global label, and determines that the first packet is to be forwarded by using the forwarding information base of the first virtual network topology, wherein the first virtual network topology is one of the plurality of virtual network topologies; wherein, the global label is formed by a plurality of local labels such that each global label includes two or more local labels. the at least one controller is configured to allocate a global label to each of the plurality of virtual network topologies, and send a binding relationship between the global labels and the plurality of virtual network topologies to the plurality of forwarding devices, wherein global labels allocated by the controller to different virtual network topologies of the plurality of virtual network topologies are different; and the plurality of forwarding devices is configured to receive the binding relationship between the global labels and the virtual network topologies, and generate, according to the binding relationship, label forwarding entries comprising a mapping relationship between the global labels and forwarding information bases of the virtual network topologies; and when a first packet received by a forwarding device carries a first global label, the forwarding device finds, by searching according to the first global label, a forwarding information base of a first virtual network topology corresponding to the first global label, and determines that the first packet is to be forwarded by using the forwarding information base of the first virtual network topology, wherein the first virtual network topology is one of the plurality of virtual network topologies; wherein, the global label is formed by a plurality of local labels such that each global label includes two or more local labels.
A delivery bed having a retaining handle which is pivotable around an axis running parallel to a bed surface of the delivery bed and perpendicular to the longitudinal direction of the bed surface, wherein the retaining handle can be fastened in a desired pivoting angle using a fastening means (11, 21) after adjusting the retaining handle, characterized in that the retaining handle interacts with a brake device, wherein the brake torque of the brake device counteracts the pivoting movements of the retaining handle in such a way that the retaining handle cannot be pivoted without resistance after opening the fastening means (11, 21) until the brake torque applied by means of the brake device has been overcome, wherein the brake torque of the brake device is permanently preset so that the brake torque of the brake device is larger than the downthrust torque caused by the weight of the retaining handle.
A pharmaceutical composition for use in the treatment of diseases of the lower genitourinary system in suppository form comprising a bioactive compound and a fatty base, wherein the said bioactive compound of the said composition is a mixture of amino acids: glutamic acid, lysine, alanine, arginine and glycine, and further comprising zinc in the form of zinc chloride in the following component ratio expressed in grams per one suppository weighing 2.7 - 2.9 g each: Glutamic acid 0.050-0.500 Lysine 0.025-0.250 Alanine 0.025-0.250 Arginine 0.025-0.250 Glycine 0.025-0.250 Zinc 0.010-0.150 Fatty base remaining
An optical fiber characteristic measuring device comprising: a light source configured to emit laser light modulated at a predetermined modulation frequency (f m); a light modulator configured to modulate the laser light emitted from the light source as continuous light, and to supply a single side band signal with respect to a center frequency of the laser light to one end of an optical fiber; a pulse modulator configured to supply a pulsed signal which pulses the laser light emitted from the light source based on a first timing signal at a predetermined frequency (f 0), wherein said pulsed light is incident to the other end of the optical fiber; a signal generator configured to supply a second timing signal to a timing adjuster and a synchronization signal having the same predetermined frequency (f 0); the timing adjuster configured to cause light emitted from said other end of the optical fiber to pass therethrough at the predetermined timing; and a light detector configured to detect the light which passed through the timing adjuster wherein, the device measures a characteristic of the optical fiber by using a detection result of the light detector; characterized in that the device further comprises a synchronous detector configured to synchronously detect the light detected by the light detector by using the synchronization signal obtained from the signal generator; and a frequency setter configured to change the frequency (f 0) of the synchronization signal in a case where the modulation frequency (f m) of the laser light is an integer multiple of the frequency (f 0) of the synchronous signal. a light source configured to emit laser light modulated at a predetermined modulation frequency (f m); a light modulator configured to modulate the laser light emitted from the light source as continuous light, and to supply a single side band signal with respect to a center frequency of the laser light to one end of an optical fiber; a pulse modulator configured to supply a pulsed signal which pulses the laser light emitted from the light source based on a first timing signal at a predetermined frequency (f 0), wherein said pulsed light is incident to the other end of the optical fiber; a signal generator configured to supply a second timing signal to a timing adjuster and a synchronization signal having the same predetermined frequency (f 0); the timing adjuster configured to cause light emitted from said other end of the optical fiber to pass therethrough at the predetermined timing; and a light detector configured to detect the light which passed through the timing adjuster wherein, the device measures a characteristic of the optical fiber by using a detection result of the light detector; characterized in that the device further comprises a synchronous detector configured to synchronously detect the light detected by the light detector by using the synchronization signal obtained from the signal generator; and a frequency setter configured to change the frequency (f 0) of the synchronization signal in a case where the modulation frequency (f m) of the laser light is an integer multiple of the frequency (f 0) of the synchronous signal.
A solenoid, comprising: a housing; a pole piece; an end plate formed with or coupled to the housing; a wire coil arranged within the housing; a permanent magnet arranged between the pole piece and the end plate; an armature configured to selectively move between a first position and a second position in response to a current applied to the wire coil; a pin coupled to the armature; and a spring biased between the armature and the pole piece, wherein when the wire coil is de-energized, the armature is maintained in at least one of the first position and the second position, and wherein the first position is configured to be maintained by the spring and the second position is configured to be maintained by magnetic attraction between the armature and the permanent magnet through engagement between the armature and the pole piece, characterised in that the pole piece includes a bearing protrusion that extends axially from the end plate and that includes a bearing surface that slidably receives the pin. a housing; a pole piece; an end plate formed with or coupled to the housing; a wire coil arranged within the housing; a permanent magnet arranged between the pole piece and the end plate; an armature configured to selectively move between a first position and a second position in response to a current applied to the wire coil; a pin coupled to the armature; and a spring biased between the armature and the pole piece, wherein when the wire coil is de-energized, the armature is maintained in at least one of the first position and the second position, and wherein the first position is configured to be maintained by the spring and the second position is configured to be maintained by magnetic attraction between the armature and the permanent magnet through engagement between the armature and the pole piece, characterised in that the pole piece includes a bearing protrusion that extends axially from the end plate and that includes a bearing surface that slidably receives the pin.
A mirror component for an automotive mirror arrangement, comprising a support structure and an adjusting unit fastened to the support structure, characterized in that the adjusting unit is fastened to the support structure by means of a clamping connection (14, 40), wherein at least one first and one second set of clamping claws or clamping tabs are provided which define at least two different mounting positions (30, 32) of the adjusting unit on the support structure.
A desktop card printer, comprising: a housing having a first end and a second end, a first side surface and a second side surface, and a top surface; a card hopper mounted to the housing at the first end thereof, the card hopper includes a card input hopper portion that is configured to hold a plurality of cards to be processed by the desktop card printer; the card hopper includes a card picking mechanism that is configured and arranged to pick and feed a single card from the plurality of cards within the card input hopper portion into the desktop card printer for processing; the card picking mechanism includes an automatic gate mechanism that is disposed at a discharge side of the card input hopper portion adjacent first edges of the cards and is configured and arranged to control the discharge of cards from the card input hopper portion into the desktop card printer, and a card edge assist mechanism that is configured and arranged to engage a second edge of a card to be picked to help separate the card to be picked from the remainder of the cards in the card input hopper portion and that includes a pick block that is detachably mounted to a mounting element; a card output; a card processing mechanism within the housing; and a card transport mechanism within the housing that is configured and arranged to receive a picked card from the card input hopper portion and to transport the picked card within the housing to the card processing mechanism and to the card output. a housing having a first end and a second end, a first side surface and a second side surface, and a top surface; a card hopper mounted to the housing at the first end thereof, the card hopper includes a card input hopper portion that is configured to hold a plurality of cards to be processed by the desktop card printer; the card hopper includes a card picking mechanism that is configured and arranged to pick and feed a single card from the plurality of cards within the card input hopper portion into the desktop card printer for processing; the card picking mechanism includes an automatic gate mechanism that is disposed at a discharge side of the card input hopper portion adjacent first edges of the cards and is configured and arranged to control the discharge of cards from the card input hopper portion into the desktop card printer, and a card edge assist mechanism that is configured and arranged to engage a second edge of a card to be picked to help separate the card to be picked from the remainder of the cards in the card input hopper portion and that includes a pick block that is detachably mounted to a mounting element; a card output; a card processing mechanism within the housing; and a card transport mechanism within the housing that is configured and arranged to receive a picked card from the card input hopper portion and to transport the picked card within the housing to the card processing mechanism and to the card output.
A mount bushing comprising: an outer tube; an inner tube provided in the outer tube; a rubber part provided between the outer tube and the inner tube; a tubular mass provided in the rubber part and having an opening formed by partially penetrating an outer circumferential surface thereof; and a stopper shaped to protrude outward from the inner tube to pass through the opening of the tubular mass, wherein the mount bushing is configured to minimize mutual interference between the mass and the stopper in deformation due to an external force, characterized in that, the mass comprises: an auxiliary mass attached to the outer circumferential surface thereof. an outer tube; an inner tube provided in the outer tube; a rubber part provided between the outer tube and the inner tube; a tubular mass provided in the rubber part and having an opening formed by partially penetrating an outer circumferential surface thereof; and a stopper shaped to protrude outward from the inner tube to pass through the opening of the tubular mass, wherein the mount bushing is configured to minimize mutual interference between the mass and the stopper in deformation due to an external force, characterized in that, the mass comprises: an auxiliary mass attached to the outer circumferential surface thereof.
A method of controlling turbofan engine sound, comprising: a) generating a desired thrust from a turbofan engine; and b) actuating hinged nozzle flaps and selectively adjusting a rotational speed of the turbofan engine fan section to control engine sound while maintaining said desired thrust, said hinged nozzle flaps at least partially defining an effective nozzle exit area of the bypass flowpath between a turbofan nacelle and a core nacelle of the turbofan engine, wherein the engine sound includes a sound peak that propagates from the turbofan engine over a lobe-shape area defined by an angle to an engine axis of rotation, characterised in that: the effective nozzle exit area is changed to alter the intensity and position of lobes of fan noise. a) generating a desired thrust from a turbofan engine; and b) actuating hinged nozzle flaps and selectively adjusting a rotational speed of the turbofan engine fan section to control engine sound while maintaining said desired thrust, said hinged nozzle flaps at least partially defining an effective nozzle exit area of the bypass flowpath between a turbofan nacelle and a core nacelle of the turbofan engine, wherein the engine sound includes a sound peak that propagates from the turbofan engine over a lobe-shape area defined by an angle to an engine axis of rotation, characterised in that: the effective nozzle exit area is changed to alter the intensity and position of lobes of fan noise.
A laser interlock system, comprising: an ultrasound data acquisition unit to acquire ultrasound data on a subject, said ultrasound data acquisition unit comprising an ultrasound probe; a light source unit to generate laser light; and a control unit to turn on or off the light source unit in response to the acquired ultrasound data; wherein the control unit is configured to determine whether or not contact between the subject and the probe occurs using the acquired ultrasound data, and turns on or off the light source unit according to said determination; characterised in that the control unit includes: an image generator to generate a 2-Dimentional ultrasound image using the acquired ultrasound data; a profile detector to detect a profile of the subject from the 2D ultrasound image; and a state determiner to compare the detected profile of the subject with profile sample information corresponding to the subject, so as to calculate a profile difference; wherein the state determiner is configured to determine that contact between the subject and the probe occurs if the calculated profile difference is less than a preset threshold value, and wherein the control unit further includes a light source controller to turn on the light source unit if the state determiner determines that contact between the subject and the probe occurs. an ultrasound data acquisition unit to acquire ultrasound data on a subject, said ultrasound data acquisition unit comprising an ultrasound probe; a light source unit to generate laser light; and a control unit to turn on or off the light source unit in response to the acquired ultrasound data; wherein the control unit is configured to determine whether or not contact between the subject and the probe occurs using the acquired ultrasound data, and turns on or off the light source unit according to said determination; an image generator to generate a 2-Dimentional ultrasound image using the acquired ultrasound data; a profile detector to detect a profile of the subject from the 2D ultrasound image; and a state determiner to compare the detected profile of the subject with profile sample information corresponding to the subject, so as to calculate a profile difference; wherein the state determiner is configured to determine that contact between the subject and the probe occurs if the calculated profile difference is less than a preset threshold value, and wherein the control unit further includes a light source controller to turn on the light source unit if the state determiner determines that contact between the subject and the probe occurs.
Method for optimised tracking of a multi-axle trailer behind a towing vehicle, which are connected to one another by means of a detachable coupling device that can be rigidly coupled, wherein the angular velocity (ψ̇ An) and the path velocity ( υ An) of the trailer are established as sensor values by means of at least one sensor apparatus (34, 38) arranged on the trailer, characterised in that a path radius (R An) for the trailer is calculated by a computer unit as a function of these sensor values, and in that the path radius (R An), placed in an angular relationship to the axle distance between two adjacent trailer axles (16, 18), gives a target angle (γ) as a function of which at least one steering axle of the trailer is actuated, which can accordingly be connected in a self-controllable manner and/or as part of a vehicle-trailer formation to various types of towing vehicles.
A method for a user equipment, UE, to receive a Physical hybrid ARQ indicator channel, PHICH, signal, the method comprising: receiving, through a physical broadcast channel, PBCH, a system bandwidth, a first value related to PHICH transmission per subframe, and a second value related to a PHICH duration per subframe; and receiving the PHICH signal based on N PHICH mapping resources within the PHICH duration of a subframe, wherein N is an integer and the PHICH duration per subframe corresponds to an orthogonal frequency divisional multiplexing, OFDM, symbol set, where the PHICH signal is mapped, wherein the number N of the PHICH mapping resources is obtained by multiplying the received first value by a number of resource blocks, NRB, predetermined according to the received system bandwidth, and wherein the received first value is one of a plurality of positive numbers. receiving, through a physical broadcast channel, PBCH, a system bandwidth, a first value related to PHICH transmission per subframe, and a second value related to a PHICH duration per subframe; and receiving the PHICH signal based on N PHICH mapping resources within the PHICH duration of a subframe, wherein N is an integer and the PHICH duration per subframe corresponds to an orthogonal frequency divisional multiplexing, OFDM, symbol set, where the PHICH signal is mapped, wherein the number N of the PHICH mapping resources is obtained by multiplying the received first value by a number of resource blocks, NRB, predetermined according to the received system bandwidth, and wherein the received first value is one of a plurality of positive numbers.