mhurhangee/patent-ind-claim-en huggingface dataset:
A light emitting diode (LED) display apparatus comprising: a plurality of light emitting diodes ; a first microlens array disposed at an upper side of the plurality of light emitting diodes, the first microlens array comprising a plurality of first microlenses which corresponds to the plurality of light emitting diodes one-to-one and is configured to form light received from the plurality of light emitting diodes into light bundles , wherein light rays forming a light bundle formed by each of the plurality of first microlenses are approximately parallel to one another; and a second microlens array disposed at an upper side of the first microlens array, the second microlens array comprising a plurality of second microlenses , wherein each of the plurality of second microlenses is configured to converge light of the light bundles, characterised in that a number of second microlenses formed in the second microlens array is larger than a number of the first microlenses formed in the first microlens array. a plurality of light emitting diodes ; a first microlens array disposed at an upper side of the plurality of light emitting diodes, the first microlens array comprising a plurality of first microlenses which corresponds to the plurality of light emitting diodes one-to-one and is configured to form light received from the plurality of light emitting diodes into light bundles , wherein light rays forming a light bundle formed by each of the plurality of first microlenses are approximately parallel to one another; and a second microlens array disposed at an upper side of the first microlens array, the second microlens array comprising a plurality of second microlenses , wherein each of the plurality of second microlenses is configured to converge light of the light bundles, characterised in that a number of second microlenses formed in the second microlens array is larger than a number of the first microlenses formed in the first microlens array.
A device for the selective positioning of the pivot of a wheel of a bicycle comprising a frame composed of a rear stay provided with a first pair of first oblique rear chainstays which are each connected, respectively by means of a triangular support , to a second pair of second horizontal rear chainstays , a derailleur hook being associable with one of said first chainstays and one of said second chainstays on a first side of the bicycle frame, wherein first external seats and second internal seats are provided at the first internal surface and at the first external surface of the triangular support on said first side of the frame for the axial and removable positioning respectively of a first external adapter and of a second internal adapter , wherein said first external adapter and said second internal adapter have respectively a second hole and a third hole , both of which are smooth and are adapted to determine two different axial arrangements of said derailleur hook and consequently of said pivot of said wheel with respect to said two first and second chainstays , characterised in that said device is adapted to keep said derailleur hook locked in clockwise rotation and free to rotate counterclockwise only through a chosen arc.
A surveying instrument comprising a distance measuring unit which irradiates an object with the distance measuring light and measures a distance to said object based on the reflected distance measuring light from said object, wherein said distance measuring unit includes a distance measuring light projecting module configured to project said distance measuring light and a distance measuring light receiving module configured to receive said reflected distance measuring light, said distance measuring light receiving module includes a dichroic prism and a light receiving module , and said dichroic prism is configured in such a manner that said reflected distance measuring light is internally reflected in said dichroic prism at least three times and then received by said light receiving module, characterized in that said dichroic prism is further configured in such a manner that, after having been three times internally reflected in said dichroic prism, said reflected distance measuring light intersects with an optical axis of said reflected distance measuring light which entered the dichroic prism and also intersects with an optical axis of said reflected distance measuring light which was internally reflected for a first time.
A two-layer fabric for manufacturing unwoven fabric comprising a right surface side layer consisting of wefts of the right surface side and warps of the right surface side, and a back surface side layer consisting of wefts of the back surface side and warps of the back surface side, the two-layer fabric for manufacturing the unwoven fabric further comprises a first pair of warps (1Ub and 1Lb, 5Ub and 5Lb) in which a binding warp on the right surface side serving as a binding yarn and a binding warp on the back surface side serving as a binding yarn are arranged in a substantially vertical direction, a second pair of warps (2U and 2L, 3U and 3L, 6U and 6L, 7U and 7L) in which a warp on the right surface side and a warp on the back surface side are arranged in a vertical direction to be overlapped with each other, and a third pair of warps (4U and 4 L, 8U and 8L) in which two warps on the right surface side are arranged adjacent to each other, wherein in a perfect structure of said two-layer fabric for manufacturing the unwoven fabric includes sixteen warps, said sixteen warps comprises two sets of said first pairs of warps (1Ub and 1Lb, 5Ub and 5Lb), four sets of said second pair of warps (2U and 2L, 3U and 3L, 6U and 6L, 7U and 7L), and two sets of said third pair of warps (4U and 3L, 8U and 8L), characterised in that the diameters of the warps constituting said first pair of warps (1Ub and 1Lb, 5Ub and 5Lb), said second pair of warps (2U and 2L, 3U and 3L, 6U and 6L, 7U and 7L), and said third pair of warps (4U and 4 L, 8U and 8L) are between 0.30 mm and 0.50 mm, and the diameters of the wefts on the back surface side are between 0.30 mm and 0.70 mm, wherein no wefts are located between the upper surface side layer and the lower surface side layer.
A vibration-absorbing boss adapted to being provided at a hub part of a fan while being coupled to a rotating shaft of a motor to absorb vibration due to rotation of the motor , the vibration-absorbing boss comprising: a first boss member having a bore for insertion of the rotating shaft of the motor ; a second boss member configured to surround the first boss member ; and a vibration-absorbing member provided between the first boss member and the second boss member to absorb vibration due to rotation of the motor , wherein the second boss member includes a body portion coming into close contact with the vibration-absorbing member and a protruding portion configured to extend first radially from the body portion and then downward and having a groove formed between the body portion and a downwardly extending portion thereof, and wherein the first and second boss members (20; 30) are injection molded, characterized in that the vibration-absorbing member is injection molded by inserting the first and second boss members (20; 30) into a mold for the vibration-absorbing member , and the groove is adapted to receive a resin upon forming the hub part of the fan at an outer periphery of the second boss member by injection molding to allow the vibration-absorbing boss and the hub part to be coupled to each other. a first boss member having a bore for insertion of the rotating shaft of the motor ; a second boss member configured to surround the first boss member ; and a vibration-absorbing member provided between the first boss member and the second boss member to absorb vibration due to rotation of the motor , wherein the second boss member includes a body portion coming into close contact with the vibration-absorbing member and a protruding portion configured to extend first radially from the body portion and then downward and having a groove formed between the body portion and a downwardly extending portion thereof, and wherein the first and second boss members (20; 30) are injection molded, characterized in that the vibration-absorbing member is injection molded by inserting the first and second boss members (20; 30) into a mold for the vibration-absorbing member , and the groove is adapted to receive a resin upon forming the hub part of the fan at an outer periphery of the second boss member by injection molding to allow the vibration-absorbing boss and the hub part to be coupled to each other.
A management apparatus to manage a moving object having an autonomous movement function, comprising: a return information transmission section to transmit, to the moving object at a predetermined time or at a predetermined time interval, a return information for the moving object to return from a current location of the moving object to a return destination of the moving object, characterized in that the return information includes an estimation parameter used for a self-location estimation processing which calculates a relative locational relationship between a particular reference location and the moving object based on a controlling amount of a drive section of the moving object and estimates a location of the moving object based on the relative locational relationship, wherein the moving object includes a self-location estimation section to calculate a relative locational relationship between a particular reference location and the moving object based on a controlling amount of a drive section of the moving object and to estimate a location of the moving object based on the relative locational relationship, and the self-location estimation section is further configured to utilize the return destination as the reference location. a return information transmission section to transmit, to the moving object at a predetermined time or at a predetermined time interval, a return information for the moving object to return from a current location of the moving object to a return destination of the moving object, characterized in that the return information includes an estimation parameter used for a self-location estimation processing which calculates a relative locational relationship between a particular reference location and the moving object based on a controlling amount of a drive section of the moving object and estimates a location of the moving object based on the relative locational relationship, wherein the moving object includes a self-location estimation section to calculate a relative locational relationship between a particular reference location and the moving object based on a controlling amount of a drive section of the moving object and to estimate a location of the moving object based on the relative locational relationship, and the self-location estimation section is further configured to utilize the return destination as the reference location.
A valve plate of an axial piston hydraulic pump, the pump including a rotating shaft and a rotary cylinder block in a housing, the valve plate comprising: a sliding supporting surface configured to contact a rear end surface of the cylinder block to support the cylinder block; a back surface that is a surface corresponding to and opposite to the sliding supporting surface; a central hole through which the rotating shaft penetrates; and a plurality of ports (22L,R) formed around the central hole as inlets and outlets of operating oil so as to penetrate the valve plate, wherein: a cooling concave portion into which the operating oil flows is formed between said plurality of ports (22L,R) on the back surface; and a first groove through which the operating oil flows and which connects the cooling concave portion with at least one of the central hole located on an inner side of the valve plate and an inner space of the housing located on an outer side of the valve plate is formed on the back surface; characterized by a second groove through which the operating oil flows and which connects the cooling concave portion with an operation oil suction port among the plurality of ports (22L,R) is informed on the back surface. a sliding supporting surface configured to contact a rear end surface of the cylinder block to support the cylinder block; a back surface that is a surface corresponding to and opposite to the sliding supporting surface; a central hole through which the rotating shaft penetrates; and a plurality of ports (22L,R) formed around the central hole as inlets and outlets of operating oil so as to penetrate the valve plate, wherein: a cooling concave portion into which the operating oil flows is formed between said plurality of ports (22L,R) on the back surface; and a first groove through which the operating oil flows and which connects the cooling concave portion with at least one of the central hole located on an inner side of the valve plate and an inner space of the housing located on an outer side of the valve plate is formed on the back surface; characterized by a second groove through which the operating oil flows and which connects the cooling concave portion with an operation oil suction port among the plurality of ports (22L,R) is informed on the back surface. a cooling concave portion into which the operating oil flows is formed between said plurality of ports (22L,R) on the back surface; and a first groove through which the operating oil flows and which connects the cooling concave portion with at least one of the central hole located on an inner side of the valve plate and an inner space of the housing located on an outer side of the valve plate is formed on the back surface; characterized by a second groove through which the operating oil flows and which connects the cooling concave portion with an operation oil suction port among the plurality of ports (22L,R) is informed on the back surface.
A polyoxyalkylene oxide (PAO) hemoglobin conjugate having a P50 ranging from 2 to 10 mmHg as measured at 37 °C and pH 7.4, wherein the hemoglobin conjugate has the structure wherein: Hb is hemoglobin, N is an amino group of the hemoglobin, L is a linker -C(O)-(CH 2 ) p - , X is a terminal group, PAO is a polyethylene glycol (PEG), m is the average number of activated-PEG polymers conjugated to the hemoglobin and is from 6 to 10, n is the average number of oxyethylene units of a PEG having an average molecular weight of from 4,000 to 6,000 Daltons, p is an integer from 2 to 6, and the hemoglobin is optionally intramolecularly-crosslinked. Hb is hemoglobin, N is an amino group of the hemoglobin, L is a linker -C(O)-(CH 2 ) p - , X is a terminal group, PAO is a polyethylene glycol (PEG), m is the average number of activated-PEG polymers conjugated to the hemoglobin and is from 6 to 10, n is the average number of oxyethylene units of a PEG having an average molecular weight of from 4,000 to 6,000 Daltons, p is an integer from 2 to 6, and the hemoglobin is optionally intramolecularly-crosslinked.
A projection apparatus (100; 200; 300; 400a-e) for a vehicle , the projection apparatus comprising: a reflection device configured to provide a reflective surface with a varying angle relative to a projection surface ; a projector configured to emit a projection beam towards the reflective surface of the reflection device; and a processing module configured to: determine a portion of the projection surface that the projection beam is to be emitted towards, obtain a sensor signal from a sensor of the vehicle, the sensor signal comprising information on the three-dimensional characteristic of the portion of the projection surface, control the reflection device to adjust the angle of the reflective surface relative to the projection surface based on the determined portion of the projection surface, determine a three-dimensional characteristic of the portion of the projection surface based on the sensor signal, and generate a display signal for the projector based on the portion of the projection surface and based on the three-dimensional characteristic of the portion of the projection surface. a reflection device configured to provide a reflective surface with a varying angle relative to a projection surface ; a projector configured to emit a projection beam towards the reflective surface of the reflection device; and a processing module configured to: determine a portion of the projection surface that the projection beam is to be emitted towards, obtain a sensor signal from a sensor of the vehicle, the sensor signal comprising information on the three-dimensional characteristic of the portion of the projection surface, control the reflection device to adjust the angle of the reflective surface relative to the projection surface based on the determined portion of the projection surface, determine a three-dimensional characteristic of the portion of the projection surface based on the sensor signal, and generate a display signal for the projector based on the portion of the projection surface and based on the three-dimensional characteristic of the portion of the projection surface. determine a portion of the projection surface that the projection beam is to be emitted towards, obtain a sensor signal from a sensor of the vehicle, the sensor signal comprising information on the three-dimensional characteristic of the portion of the projection surface, control the reflection device to adjust the angle of the reflective surface relative to the projection surface based on the determined portion of the projection surface, determine a three-dimensional characteristic of the portion of the projection surface based on the sensor signal, and generate a display signal for the projector based on the portion of the projection surface and based on the three-dimensional characteristic of the portion of the projection surface.
A resource determining method, wherein the method comprises: receiving, by a device, scheduling request SR resource indication information from a base station, wherein the SR resource indication information is used to indicate an SR resource; and determining, by the device, a PUCCH at a slot based on the SR resource and an OCC to transmit an SR, characterized by a quantity of symbols occupied by the PUCCH is 14; the length of the OCC is 7 when the PUCCH is transmitted without frequency hopping receiving, by a device, scheduling request SR resource indication information from a base station, wherein the SR resource indication information is used to indicate an SR resource; and determining, by the device, a PUCCH at a slot based on the SR resource and an OCC to transmit an SR, characterized by a quantity of symbols occupied by the PUCCH is 14; the length of the OCC is 7 when the PUCCH is transmitted without frequency hopping
A non-combustible smoking element comprising: a pre-vapor formulation reservoir element configured to contain a pre-vapor formulation material; a pre-vapor heating element coupled to the pre-vapor formulation reservoir element and configured to heat at least a portion of the pre-vapor formulation material into a vapor and provide the vapor to a channel ; a tobacco heating element configured to heat at least a portion of tobacco and generate an aroma; and a tobacco housing configured to contain the tobacco and provide the aroma to the channel , wherein the tobacco housing includes: an outer housing extending in a longitudinal direction; an inner tube in the outer housing and extending in the longitudinal direction, a space between the outer housing and the inner tube defining a space to contain the tobacco; and a connecting piece at a first end of the tobacco housing, the connecting piece including at least one first air inlet to provide air to the space between the outer housing and the inner tube, and wherein the connecting piece includes a second air inlet to provide air within the inner tube. a pre-vapor formulation reservoir element configured to contain a pre-vapor formulation material; a pre-vapor heating element coupled to the pre-vapor formulation reservoir element and configured to heat at least a portion of the pre-vapor formulation material into a vapor and provide the vapor to a channel ; a tobacco heating element configured to heat at least a portion of tobacco and generate an aroma; and a tobacco housing configured to contain the tobacco and provide the aroma to the channel , wherein the tobacco housing includes: an outer housing extending in a longitudinal direction; an inner tube in the outer housing and extending in the longitudinal direction, a space between the outer housing and the inner tube defining a space to contain the tobacco; and a connecting piece at a first end of the tobacco housing, the connecting piece including at least one first air inlet to provide air to the space between the outer housing and the inner tube, and an outer housing extending in a longitudinal direction; an inner tube in the outer housing and extending in the longitudinal direction, a space between the outer housing and the inner tube defining a space to contain the tobacco; and a connecting piece at a first end of the tobacco housing, the connecting piece including at least one first air inlet to provide air to the space between the outer housing and the inner tube, and wherein the connecting piece includes a second air inlet to provide air within the inner tube.
A pumping system including a pump, or pumps in a system of pumps, or a system of pumps and a pump controller having a signal processor or processing module, characterized in that the signal processor or processing module is configured to: receive signaling containing information about three corresponding discrete arrays with respect to a discrete motor speed for each of a plurality of positions (C vj ) of the pumping system, with j = 1, 2, ..., M, at a motor speed, the three corresponding discrete arrays derived from 3D discrete distribution surfaces of motor power, pump differential pressure and flow rate by respective numerical interpolations; determine corresponding signaling containing information to control the pump, or the pumps in a system of pumps, or the system of pumps based upon a pump differential pressure and a flow rate at a motor speed for a motor power value, the pump differential pressure and the flow rate determined using a numerical interpolation of the three corresponding discrete arrays, and the signaling received, and provide the corresponding signaling determined as control signaling to control the pump, or the pumps in a system of pumps, or the system of pumps. receive signaling containing information about three corresponding discrete arrays with respect to a discrete motor speed for each of a plurality of positions (C vj ) of the pumping system, with j = 1, 2, ..., M, at a motor speed, the three corresponding discrete arrays derived from 3D discrete distribution surfaces of motor power, pump differential pressure and flow rate by respective numerical interpolations; determine corresponding signaling containing information to control the pump, or the pumps in a system of pumps, or the system of pumps based upon a pump differential pressure and a flow rate at a motor speed for a motor power value, the pump differential pressure and the flow rate determined using a numerical interpolation of the three corresponding discrete arrays, and the signaling received, and provide the corresponding signaling determined as control signaling to control the pump, or the pumps in a system of pumps, or the system of pumps.
An artificial feather filling material, comprising artificial feathers each comprising a first sheet of a first nonwoven material, the nonwoven material being a bonded material, wherein a filament is arranged along one extension of said sheet, the filament being bonded to the first sheet , wherein the first sheet is a strip, the filament being arranged along the longitudinal extension of said strip.