mhurhangee/ep-ind-claims huggingface dataset:
Method for verifying a surveying instrument's external orientation during a measurement process, wherein the surveying instrument is at least provided with imaging means and angle measurement means for detecting an internal photographing direction of the imaging means relative to a base of the surveying instrument, characterized in that the method comprises the initialization steps of • directing the imaging means onto a reference object and detecting a first photographing direction of the imaging means, • taking a first image of the reference object in the first photographing direction, • memorizing the first image and the first photographing direction as being indicative of the surveying instrument's external orientation, and - in a proceeded state of the measurement process - the further, verifying steps of • re-directing the imaging means onto the reference object and detecting a second photographing direction of the imaging means, • taking a second image of the reference object in the second photographing direction, and • comparing a first with a second imaged position of the reference object in the first respectively the second image by image processing as well as the first with the second photographing direction and verifying the surveying instrument's external orientation based on disparities between the first and the second imaged position and/or between the first and the second photographing direction. • directing the imaging means onto a reference object and detecting a first photographing direction of the imaging means, • taking a first image of the reference object in the first photographing direction, • memorizing the first image and the first photographing direction as being indicative of the surveying instrument's external orientation, • re-directing the imaging means onto the reference object and detecting a second photographing direction of the imaging means, • taking a second image of the reference object in the second photographing direction, and • comparing a first with a second imaged position of the reference object in the first respectively the second image by image processing as well as the first with the second photographing direction and verifying the surveying instrument's external orientation based on disparities between the first and the second imaged position and/or between the first and the second photographing direction.
A process for preparation of an N-acylated monomeric compound selected from 5-acetamido-N,N'-bis(2,3-dihydroxypropyl)-2,4,6-triiodoisophthalamide (Compound A) and N,N'-bis(2,3-dihydroxypropyl)-5-formamido-2,4,6-triiodoisophthalamide (Compound C) comprising a step wherein Compound B2, wherein each X individually denotes a hydrogen or an acyl group, provided that at least one of the X-groups attached to the nitrogen is an acyl group; is subjected to deacylation of the acylated hydroxyl groups by adding the Compound B2 to an aqueous solution of a deacylating agent wherein the deacylating agent is an inorganic base.
A switchable shower head, comprises a waterway device and a waterway switch device, the waterway device comprises at least two outlet functions, wherein the waterway switch device comprises: a water diversion plate disposed in the waterway, when rotating the water diversion plate, the outlet is switched to different outlet functions; a ratchet wheel, which is coaxially connected to the water diversion plate; a transmission rack, which is disposed to the waterway device and is capable of moving away and closing to the ratchet wheel, the transmission rack is reset by two elastic elements, wherein the two elastic elements are arranged in opposite border sections of the transmission rack; a transmission element, which is slidably assembled to a sliding chamber of the transmission rack and is capable of abutting against the ratchet of the ratchet wheel to move the ratchet wheel to rotate, an angle is formed between the sliding direction of the transmission element and the sliding direction of the transmission rack. a water diversion plate disposed in the waterway, when rotating the water diversion plate, the outlet is switched to different outlet functions; a ratchet wheel, which is coaxially connected to the water diversion plate; a transmission rack, which is disposed to the waterway device and is capable of moving away and closing to the ratchet wheel, the transmission rack is reset by two elastic elements, wherein the two elastic elements are arranged in opposite border sections of the transmission rack; a transmission element, which is slidably assembled to a sliding chamber of the transmission rack and is capable of abutting against the ratchet of the ratchet wheel to move the ratchet wheel to rotate, an angle is formed between the sliding direction of the transmission element and the sliding direction of the transmission rack.
A dynamic airflow distribution system within an interior space of a transport unit (100, 500), the dynamic airflow distribution system comprising: a dynamic airflow distributor that forms an airflow passage with a ceiling of the transport unit (100, 500), the dynamic airflow distributor extending along a longitudinal direction of the transport unit (100, 500); a plurality of spacing devices that form a plurality of gaps (132, 132a, 132b) between the ceiling and the dynamic airflow distributor; and a plurality of distributor gap closing mechanisms (136, 136a, 136b), wherein each of the distributor gap closing mechanisms (136, 136a, 136b) is associated with a corresponding gap (132, 132a, 132b) of the plurality of gaps (132, 132a, 132b) between the ceiling and the dynamic airflow distributor, and wherein each of the plurality of distributor gap closing mechanisms (136, 136a, 136b) controllably opens and closes the corresponding gap (132, 132a, 132b) of the plurality of gaps (132, 132a, 132b) between the ceiling and the dynamic airflow distributor. a dynamic airflow distributor that forms an airflow passage with a ceiling of the transport unit (100, 500), the dynamic airflow distributor extending along a longitudinal direction of the transport unit (100, 500); a plurality of spacing devices that form a plurality of gaps (132, 132a, 132b) between the ceiling and the dynamic airflow distributor; and a plurality of distributor gap closing mechanisms (136, 136a, 136b), wherein each of the distributor gap closing mechanisms (136, 136a, 136b) is associated with a corresponding gap (132, 132a, 132b) of the plurality of gaps (132, 132a, 132b) between the ceiling and the dynamic airflow distributor, and wherein each of the plurality of distributor gap closing mechanisms (136, 136a, 136b) controllably opens and closes the corresponding gap (132, 132a, 132b) of the plurality of gaps (132, 132a, 132b) between the ceiling and the dynamic airflow distributor.
A superconductive conductor comprising: a base material having a first groove on at least one face thereof; and a superconducting layer (30, 130) that is formed on a surface of the base material at a side at which the first groove is formed, except on at least the first groove, wherein the superconducting layer (30, 130) is formed to cover corner portions at which the face of the base material on which the superconducting layer (30, 130) is formed contacts respective inner wall faces of the first groove of the base material. a base material having a first groove on at least one face thereof; and a superconducting layer (30, 130) that is formed on a surface of the base material at a side at which the first groove is formed, except on at least the first groove,
Sliding parts comprising sealing faces of opposed annular stationary and rotating rings (6,3), which are allowed to rotate relative to one another, thereby sealing a sealed fluid present on one side in the radial direction of said sealing faces that slide in said relative rotation, the annular stationary ring being fixed on a fixed side and the annular rotating ring rotating along with a rotating shaft; the sliding parts further comprising: a plurality of circumferentially separated sealed-fluid-accommodating blocks are formed on the sealing face of either said stationary ring or said rotating ring so as to communicate with a sealed-fluid-accommodating space; pumping areas for generating a pumping action due to the stationary and rotating ring (6,3) sliding in relative rotation are formed on the bottom of said plurality of sealed-fluid-accommodating blocks; a plurality of parallel linear indentations is formed in each of the pumping areas; the pumping areas formed on the bottom of said plurality of sealed-fluid-accommodating blocks are provided with intake pumping areas operating in a direction so as to draw in the sealed fluid and outflow pumping areas operating in a direction so as to expel the sealed fluid; an imaginary plane connecting apexes of the linear indentations of the pumping areas is set lower than the sealing face; and a seal dam area on the sealing face on which said sealed-fluid-accommodating blocks are formed is formed from a high-lubricity sliding material, wherein the high-lubricity sliding material is a material containing one solid lubricant out of PTFE, MoS 2, WS 2, graphite, BN or a material containing a lubricative oil, the seal dam area being on the opposite side of the sealing face relative to the sealed-fluid side. a plurality of circumferentially separated sealed-fluid-accommodating blocks are formed on the sealing face of either said stationary ring or said rotating ring so as to communicate with a sealed-fluid-accommodating space; pumping areas for generating a pumping action due to the stationary and rotating ring (6,3) sliding in relative rotation are formed on the bottom of said plurality of sealed-fluid-accommodating blocks; a plurality of parallel linear indentations is formed in each of the pumping areas; the pumping areas formed on the bottom of said plurality of sealed-fluid-accommodating blocks are provided with intake pumping areas operating in a direction so as to draw in the sealed fluid and outflow pumping areas operating in a direction so as to expel the sealed fluid; an imaginary plane connecting apexes of the linear indentations of the pumping areas is set lower than the sealing face; and a seal dam area on the sealing face on which said sealed-fluid-accommodating blocks are formed is formed from a high-lubricity sliding material, wherein the high-lubricity sliding material is a material containing one solid lubricant out of PTFE, MoS 2, WS 2, graphite, BN or a material containing a lubricative oil, the seal dam area being on the opposite side of the sealing face relative to the sealed-fluid side.
A detergent storage container (221, 222) comprising: a detergent storage member (221c, 222c) having a storage space to store laundry detergent; and a residual amount detecting unit installed at the detergent storage member (221c, 222c) and configured to detect a residual amount of laundry detergent stored in the detergent storage member (221c, 222c), characterized in that, wherein the detergent storage member (221c, 222c) comprises a lower surface and a rear surface protruding upwardly from the lower surface, and wherein the residual amount detecting unit is installed at the rear surface of the detergent storage member (221c, 222c). a detergent storage member (221c, 222c) having a storage space to store laundry detergent; and a residual amount detecting unit installed at the detergent storage member (221c, 222c) and configured to detect a residual amount of laundry detergent stored in the detergent storage member (221c, 222c), characterized in that, wherein the detergent storage member (221c, 222c) comprises a lower surface and a rear surface protruding upwardly from the lower surface, and wherein the residual amount detecting unit is installed at the rear surface of the detergent storage member (221c, 222c).
A seat belt assembly for a vehicle, the vehicle having a floor, spaced side walls extending from the floor, a seat supported by the floor, wherein said seat belt assembly comprises: a rear wall configured to interconnect the side walls; a seat belt retractor for attachment to a seat back frame of the seat; an anchor configured to be attached to the vehicle body; a seat belt guide configured to be disposed adjacent to an upper portion of the seat back frame for guiding a seat belt webbing extending from the seat belt retractor to the anchor wherein said seat belt guide is rigidly fixed to a tubular member extending along the length of rear wall and wherein said tubular member is rigidly attached to the side walls at its ends, wherein the tubular member has mounting holes configured to receive two side portions (122a and 122b) of the belt guide, wherein the two side portions (122a and 122b) of the belt guide are inserted into the mounting holes in the tubular member with the side end portions facing downward and rigidly attached to the tubular member by at least one of a welding, brazing, adhesive bonding, riveting, soldering and compression fitting, wherein the seat belt guide is a rod-shaped member formed substantially into a U-shape defined by the two side portions (122a and 122b) and a transverse portion therebetween, wherein the transverse portion comprises the belt guide portion and wherein the two side portions (122a and 122b) are rigidly fixed to the tubular member, and wherein said seat belt guide includes a roller rotatably supported by said rod shaped member with said seat belt webbing being movably supported by the roller. a rear wall configured to interconnect the side walls; a seat belt retractor for attachment to a seat back frame of the seat; an anchor configured to be attached to the vehicle body; a seat belt guide configured to be disposed adjacent to an upper portion of the seat back frame for guiding a seat belt webbing extending from the seat belt retractor to the anchor wherein said seat belt guide is rigidly fixed to a tubular member extending along the length of rear wall and wherein said tubular member is rigidly attached to the side walls at its ends, wherein the tubular member has mounting holes configured to receive two side portions (122a and 122b) of the belt guide, wherein the two side portions (122a and 122b) of the belt guide are inserted into the mounting holes in the tubular member with the side end portions facing downward and rigidly attached to the tubular member by at least one of a welding, brazing, adhesive bonding, riveting, soldering and compression fitting, wherein the seat belt guide is a rod-shaped member formed substantially into a U-shape defined by the two side portions (122a and 122b) and a transverse portion therebetween, wherein the transverse portion comprises the belt guide portion and wherein the two side portions (122a and 122b) are rigidly fixed to the tubular member, and wherein said seat belt guide includes a roller rotatably supported by said rod shaped member with said seat belt webbing being movably supported by the roller.
An aerofoil having an aerodynamic surface with an aperture therein, in combination with a seal assembly for closing the aperture, characterised in that the seal assembly comprises: a track (15, 16) attached to the structure of the aerofoil; and a retractable seal including a flexible substrate and a plurality of rods connected to the substrate, wherein at least one of the rods is mounted for running movement along the track, wherein the seal is moveable between an extended position and a retracted position by moving the at least one rod along the track accompanied by folding/unfolding of the seal substrate in a concertina style, and wherein the seal is biased to its extended position.
A heat-insulating panel for use in buildings comprising: a vacuum-insulation material; a latent heat storage material (103, 103a, 103b) which covers a predetermined place of the vacuum-insulation material; and a heat-insulation material which covers the latent heat storage material (103, 103a, 103b) and the vacuum-insulation material, wherein the latent heat storage material (103, 103a, 103b) is disposed in a place where heat bridging that results from heat leakage between high temperature and low temperature parts can be mitigated by means of latent heat, as the predetermined place in the vacuum-insulation material, and wherein the vacuum-insulation material has a flat plate-like shape; characterized in that the latent heat storage material (103, 103a, 103b) is arranged substantially in a frame-like shape extending from one main surface of the vacuum-insulation material, wrapping around a sidewall thereof, and connecting to the other main surface thereof so as to cover an entire peripheral edge of the vacuum-insulation material; and the heat-insulation material is arranged in such a manner that the heat-insulation material covers an entire surface of the latent heat storage material (103, 103a, 103b) and an entire exposed surface of the vacuum-insulation material. a vacuum-insulation material; a latent heat storage material (103, 103a, 103b) which covers a predetermined place of the vacuum-insulation material; and a heat-insulation material which covers the latent heat storage material (103, 103a, 103b) and the vacuum-insulation material, wherein the latent heat storage material (103, 103a, 103b) is disposed in a place where heat bridging that results from heat leakage between high temperature and low temperature parts can be mitigated by means of latent heat, as the predetermined place in the vacuum-insulation material, and wherein the vacuum-insulation material has a flat plate-like shape; characterized in that the latent heat storage material (103, 103a, 103b) is arranged substantially in a frame-like shape extending from one main surface of the vacuum-insulation material, wrapping around a sidewall thereof, and connecting to the other main surface thereof so as to cover an entire peripheral edge of the vacuum-insulation material; and the heat-insulation material is arranged in such a manner that the heat-insulation material covers an entire surface of the latent heat storage material (103, 103a, 103b) and an entire exposed surface of the vacuum-insulation material.
Interior materials for being attached to an outer surface of a plastic injection mold and exposing, to outside, light selectively emitted from a light source arranged in the plastic injection mold, the interior materials comprising: a wood pattern layer formed of natural wood and having a plurality of first lighting holes through which the light selectively emitted from the light source passes, characterized by further comprising: a light block layer coupled to a rear surface of the wood pattern layer, blocking light, and having a plurality of second lighting holes formed therein respectively corresponding to the plurality of first lighting holes; and a touch sensor electrode coupled to a rear surface of the light block layer and controlling an operation of a preset function by a touch, and having a plurality of third lighting holes formed therein respectively corresponding to the plurality of the second lighting holes. a light block layer coupled to a rear surface of the wood pattern layer, blocking light, and having a plurality of second lighting holes formed therein respectively corresponding to the plurality of first lighting holes; and a touch sensor electrode coupled to a rear surface of the light block layer and controlling an operation of a preset function by a touch, and having a plurality of third lighting holes formed therein respectively corresponding to the plurality of the second lighting holes.
Hierarchically built railway data network for highly reliable time deterministic communication using data packets controlling the railway traffic, said data packets being transmitted from an interlocking system (Stw) to decentralised field elements and/or from decentralised field elements to the interlocking system (Stw); comprising: a) one or several highly available backbones, b1) the interlocking system connected redundantly by at least two interfaces to the one or several backbones, b2) at least two decentralised field elements interconnected to one line and coupled to the line by a decentralised functional unit each, wherein both ends of the line are terminated by a gateway (UCOM) and interconnected to a ring via the one or several backbones, c) a location-independent central interlocking system data processing unit sending data packets via several ports, which arrive redundantly via both gateways (UCOM) to the location-dependent decentralised functional unit, wherein the decentralised functional unit also sends data packets via two ports to the central interlocking system data processor, and wherein the central interlocking system data processing unit transmits redundant data packets via different ports to a determined functional unit, which receives the redundant data packets via different ports. a) one or several highly available backbones, b1) the interlocking system connected redundantly by at least two interfaces to the one or several backbones, b2) at least two decentralised field elements interconnected to one line and coupled to the line by a decentralised functional unit each, wherein both ends of the line are terminated by a gateway (UCOM) and interconnected to a ring via the one or several backbones, c) a location-independent central interlocking system data processing unit sending data packets via several ports, which arrive redundantly via both gateways (UCOM) to the location-dependent decentralised functional unit, wherein the decentralised functional unit also sends data packets via two ports to the central interlocking system data processor, and wherein the central interlocking system data processing unit transmits redundant data packets via different ports to a determined functional unit, which receives the redundant data packets via different ports.
A circuit breaker comprising: a vacuum chamber; a fixed contact and a movable contact disposed in said vacuum chamber; a fixed contact stem supporting said fixed contact in said vacuum chamber and extending outwards from a first end of said vacuum chamber; a movable contact stem supporting said movable contact in said vacuum chamber for reciprocal movement between contact with and separated from said fixed contact, and extending outwards from a second end of said vacuum chamber; a first electrical conductor coupled to said fixed contact stem; a second electrical conductor coupled to said movable contact stem; and at least one heat dissipating means (5,6) provided for at least one of said fixed contact and movable contact; wherein, the heat dissipating means (5,6) is hollow and has an external surface and internal surface; a plurality of fins (52,62) provided on said internal surface, which fins constitute a passage through which air is convected in a direction of air convection, characterized in that the fins (52, 62) are arranged to define the direction of air convection parallel to the direction of reciprocal movement of the movable contact stem. a vacuum chamber; a fixed contact and a movable contact disposed in said vacuum chamber; a fixed contact stem supporting said fixed contact in said vacuum chamber and extending outwards from a first end of said vacuum chamber; a movable contact stem supporting said movable contact in said vacuum chamber for reciprocal movement between contact with and separated from said fixed contact, and extending outwards from a second end of said vacuum chamber; a first electrical conductor coupled to said fixed contact stem; a second electrical conductor coupled to said movable contact stem; and at least one heat dissipating means (5,6) provided for at least one of said fixed contact and movable contact; wherein, the heat dissipating means (5,6) is hollow and has an external surface and internal surface; a plurality of fins (52,62) provided on said internal surface, which fins constitute a passage through which air is convected in a direction of air convection, characterized in that the fins (52, 62) are arranged to define the direction of air convection parallel to the direction of reciprocal movement of the movable contact stem.