mhurhangee/ep-ind-claims huggingface dataset:
A method of cutting out a glass plate and positioning the cut-out glass plate, comprising the steps of: forming cut lines on an unworked plate glass with a preset work coordinate system in a cut line forming position with respect to the unworked plate glass; applying an alignment mark onto at least two locations set in advance in the work coordinate system on each of a plurality of glass plates to be cut out from the unworked plate glass, before forming a plurality of cut-out glass plates cut out from the unworked plate glass along the cut lines; forming the plurality of cut-out glass plates cut out from the plurality of glass plates to be cut out with the alignment mark, respectively applied thereto along the cut lines; detecting the position of an actual alignment mark on each of the plurality of cut-out glass plates by performing imaging and image processing of the alignment mark with a camera installed by setting as a reference position a coordinate value of an alignment mark set in the work coordinate system, in a positioning position for positioning each of the plurality of cut-out glass plates with the alignment mark applied thereto and cut out; calculating an amount of positional deviation between the position of the actual alignment mark and the reference position; and correcting a position and an angle of each of the plurality of cut-out glass plates on the basis of the amount of positional deviation. forming cut lines on an unworked plate glass with a preset work coordinate system in a cut line forming position with respect to the unworked plate glass; applying an alignment mark onto at least two locations set in advance in the work coordinate system on each of a plurality of glass plates to be cut out from the unworked plate glass, before forming a plurality of cut-out glass plates cut out from the unworked plate glass along the cut lines; forming the plurality of cut-out glass plates cut out from the plurality of glass plates to be cut out with the alignment mark, respectively applied thereto along the cut lines; detecting the position of an actual alignment mark on each of the plurality of cut-out glass plates by performing imaging and image processing of the alignment mark with a camera installed by setting as a reference position a coordinate value of an alignment mark set in the work coordinate system, in a positioning position for positioning each of the plurality of cut-out glass plates with the alignment mark applied thereto and cut out; calculating an amount of positional deviation between the position of the actual alignment mark and the reference position; and correcting a position and an angle of each of the plurality of cut-out glass plates on the basis of the amount of positional deviation.
An apparatus for computing, the apparatus comprising: one or more computer processors; a wireless communicator, coupled to the one or more computer processors, to send and receive wireless communications from a plurality of computing devices; a device location determiner to operate on the one or more computer processors to determine location information for the plurality of computing devices based at least in part on the wireless communications received; and a device location presenter to operate on the one or more computing processors to present visual elements representing the plurality of computing devices that are within a proximity threshold to the apparatus or to selected one or ones of the plurality of computing devices for selection for connection, based at least in part on determined location information of the plurality of computing devices, wherein the device location determiner is to determine location information through determination of proximity information based at least in part on wireless communication signal information for wireless communications with the one or more computing devices, wherein the device location determiner is to determine proximity information based at least in part on wireless communication signal strength, wherein the apparatus is characterised in that the device location determiner is to determine location information for a first computing device out of the plurality of computing devices further based on known location information for a second computing device out of the one or more computing devices. one or more computer processors; a wireless communicator, coupled to the one or more computer processors, to send and receive wireless communications from a plurality of computing devices; a device location determiner to operate on the one or more computer processors to determine location information for the plurality of computing devices based at least in part on the wireless communications received; and a device location presenter to operate on the one or more computing processors to present visual elements representing the plurality of computing devices that are within a proximity threshold to the apparatus or to selected one or ones of the plurality of computing devices for selection for connection, based at least in part on determined location information of the plurality of computing devices, wherein the device location determiner is to determine location information through determination of proximity information based at least in part on wireless communication signal information for wireless communications with the one or more computing devices, wherein the device location determiner is to determine proximity information based at least in part on wireless communication signal strength, wherein the apparatus is characterised in that the device location determiner is to determine location information for a first computing device out of the plurality of computing devices further based on known location information for a second computing device out of the one or more computing devices.
A climbing shoe comprising: a shoe-upper shaped so as to accommodate and cover substantially the entire foot of the user; a front sole made of polymeric material, which is fixed to the bottom of the shoe-upper so as to cover at least the front part of the bottom of said shoe-upper; and at least a front tensioning band made of elastomeric material, which is substantially U-bent and is fixed to the tip of the shoe-upper so as to surround/enclose the front part of the bottom of the shoe-upper, joining the front sole; the climbing shoe being characterised in that the front tensioning band has a ribbon-like monolithic structure and is longitudinally divided into a lower ribbon-like portion which is immediately adjacent/contiguous to the front sole, and into an upper ribbon-like portion which flanks the lower ribbon-like portion while remaining spaced from the edge of the front sole, and which has a hardness lower than that of the lower ribbon-like portion.
A radio communication device, comprising: a receiver configured to receive, from another radio communication device, in a time period allocated by the radio communication device to the other radio communication device and in accordance with a first communication mode, a radio signal including information indicating an urgency level of urgent; and a controller configured to determine, based on the information included in the radio signal, to control communication to be executed using a second communication mode, and to switch from the first communication mode to the second communication mode in accordance with the determination, wherein communication between the radio communication device and the other radio communication device is executed using time division multiplexing in the first communication mode, and communication between the radio communication device and the other radio communication device is executed using a contention-based access method in the second communication mode. a receiver configured to receive, from another radio communication device, in a time period allocated by the radio communication device to the other radio communication device and in accordance with a first communication mode, a radio signal including information indicating an urgency level of urgent; and a controller configured to determine, based on the information included in the radio signal, to control communication to be executed using a second communication mode, and to switch from the first communication mode to the second communication mode in accordance with the determination,
Marine pipeline installation system for laying on the seabed an offshore pipeline, said marine pipeline installation system comprising: - a pipeline launch tower, which is adapted for launching the pipeline in a firing line along said pipeline launch tower into the sea, - one or more tensioners supported by the pipeline launch tower, the one or more tensioners being configured to engage the pipeline in the firing line and support at least part of the weight of a launched pipeline, - a guide support structure mounted to the pipeline launch tower, - a pipeline guide supported by the guide support structure in a pipeline launch trajectory between a pipeline storage and the firing line above the one or more tensioners, wherein the pipeline guide is provided opposite the firing line relative to the pipeline launch tower in an operational position, the pipeline guide providing an arcuate guide surface in a vertical plane for guiding said pipeline from the pipeline storage into the firing line, characterized in that the guide support structure is embodied as a single-sided guide support arm arranged on one side of the pipeline guide only, one end of which is mounted to the pipeline launch tower, and onto the other end of which guide support arm a cantilevered carrier is provided to support the pipeline guide. - a pipeline launch tower, which is adapted for launching the pipeline in a firing line along said pipeline launch tower into the sea, - one or more tensioners supported by the pipeline launch tower, the one or more tensioners being configured to engage the pipeline in the firing line and support at least part of the weight of a launched pipeline, - a guide support structure mounted to the pipeline launch tower, - a pipeline guide supported by the guide support structure in a pipeline launch trajectory between a pipeline storage and the firing line above the one or
A vacuum insulated glazing unit (1, 21, 41, 51) comprising a first sheet of glazing material (3, 23, 53) and a second sheet of glazing material (5, 25, 55), there being a first space (12, 32, 62) between the first sheet of glazing material and the second sheet of glazing material, the first sheet of glazing material being spaced apart from the second sheet of glazing material by less than 1mm; wherein the first sheet of glazing material has a first major surface and an opposing second major surface, and the second sheet of glazing material has a first major surface and an opposing second major surface, wherein the second major surface of the first sheet of glazing material and the first major surface of the second sheet of glazing material face the first space, wherein the first space is a low pressure space having a pressure less than atmospheric pressure, there being a plurality of spacers disposed in the first space, characterised in that the second major surface of the second sheet of glazing material has a low emissivity coating (15, 35, 65) thereon, the low emissivity coating comprising at least one layer of fluorine doped tin oxide and there is a first anti-iridescence coating in between the low emissivity coating and the second sheet of glazing material, wherein there is a low emissivity coating (13, 33) on the second major surface of the first sheet of glazing material, the low emissivity coating (13, 33) on the second major surface of the first sheet of glazing material comprising at least one layer of fluorine doped tin oxide. the second major surface of the second sheet of glazing material has a low emissivity coating (15, 35, 65) thereon, the low emissivity coating comprising at least one layer of fluorine doped tin oxide and there is a first anti-iridescence coating in between the low emissivity coating and the second sheet of glazing material, wherein there is a low emissivity coating (13, 33) on the second major surface of the first sheet of glazing material, the low emissivity coating (13, 33) on the second major surface of the first sheet of glazing material comprising at least one layer of fluorine doped tin oxide.
Hearing aid to be worn behind the ear, comprising: - a receiver, which has a sound outlet; - a support hook, which has a sound channel; - a connecting piece for connecting the sound outlet of the receiver to the sound channel of the support hook, and - a housing frame (30, 31), in which the receiver and to which the support hook are fastened, respectively; - wherein the connecting piece is for the most part made of metal or ceramic and is fastened directly to the housing frame (30, 31), - wherein the housing frame (30, 31) has two halves (30, 31), which each have a recess (32, 33), - wherein the two recesses (32, 33), in the assembled state of the two halves (30, 31), have an inner contour that corresponds to an outer contour of a flange of the connecting piece, - wherein fastening bores (12, 22) are formed in the flange (11, 21), and - wherein the housing frame (30, 31) is pinned onto the connecting piece (10, 20). - a receiver, which has a sound outlet; - a support hook, which has a sound channel; - a connecting piece for connecting the sound outlet of the receiver to the sound channel of the support hook, and - a housing frame (30, 31), in which the receiver and to which the support hook are fastened, respectively; - wherein the connecting piece is for the most part made of metal or ceramic and is fastened directly to the housing frame (30, 31), - wherein the housing frame (30, 31) has two halves (30, 31), which each have a recess (32, 33), - wherein the two recesses (32, 33), in the assembled state of the two halves (30, 31), have an inner contour that corresponds to an outer contour of a flange of the connecting piece, - wherein fastening bores (12, 22) are formed in the flange (11, 21), and - wherein the housing frame (30, 31) is pinned onto the connecting piece (10, 20).
Bolt for a repeating rifle with a cylindrical body and a bolt handle stalk (3a, 3b) fastened detachably to the body of the bolt, characterised in that the bolt handle stalk (3a, 3b) is screwed to the body of the bolt by means of a fastening screw which projects from the inside of the body of the bolt through a radial opening into a sleeve-shaped rear part of the body of the bolt and engages in a threaded bore of the bolt handle stalk (3a, 3b).
A voltage-controlled magnetic device comprising: - a magnetic layer extending along a reference plane and having a variable-direction magnetisation and an effective anisotropy K eff; - a non-magnetic insulating layer extending on the magnetic layer; - a contact layer extending on the insulating layer; - a means for applying a bias voltage between the contact layer and the magnetic layer, through the non-magnetic insulating layer; characterised by said magnetic layer having an anisotropy switching threshold such that applying a bias voltage V max through the insulating layer enables switching the effective anisotropy K eff from a direction perpendicular to the reference plane to a direction in the reference plane or vice versa, said magnetic device being characterised in that the magnetic layer comprises: - a first layer, referred to as the "volume layer", of a thickness t B, having a first volume anisotropy K VB; - a second layer, referred to as the "surface layer", of a thickness t A, having a surface anisotropy K SA and a second volume anisotropy K VA, the surface layer lying between the volume layer and the non-magnetic insulating layer; the composition and thickness of the surface and volume layers being selected in order for the surface anisotropy K SA and the first and second volume anisotropies K VB and K VA to meet, over a given temperature operating range, the following inequation: Min K SA V = 0, K SA V = V max < − K VB t B + K VA t A < Max K SA V = 0, K SA V = V max where K SA (V = 0) is the surface anisotropy when no bias voltage is applied; K SA (V = V max) is the surface anisotropy when the bias voltage V max is applied. - a magnetic layer extending along a reference plane and having a variable-direction magnetisation and an effective anisotropy K eff; - a non-magnetic insulating layer extending on the magnetic layer; - a contact layer extending on the insulating layer; - a means for applying a bias voltage between the contact layer and the magnetic layer, through the non-magnetic insulating layer; - a first layer, referred to as the "volume layer", of a thickness t B, having a first volume anisotropy K VB; - a second layer, referred to as the "surface layer", of a thickness t A, having a surface anisotropy K SA and a second volume anisotropy K VA, the surface layer lying between the volume layer and the non-magnetic insulating layer;
A flexible and rotatable coupling assembly connecting a first rotatable shaft to a second rotatable shaft, said coupling assembly comprising: a spherical bearing that is connectable to the first rotatable shaft for accommodating a radial or angular misalignment between the first and second rotatable shafts (24/42); and a flexible and rotatable coupler that is non-rotatably connected to the first and second rotatable shafts (24/42) for transferring rotation between the first and second rotatable shafts, wherein the flexible and rotatable coupler is either directly or indirectly connected to the spherical bearing, said flexible and rotatable coupler having a flexible component that is configured to flex for accommodating the radial or angular misalignment characterised in that the coupler comprises a first component that is connectable to the first rotatable shaft, a second component that is either directly or indirectly connected to the spherical bearing, the flexible component of the coupler being positioned between the first and second components (302/306), wherein a fastener or the spherical bearing is arranged to maintain the first, flexible, and second components (302/304/306) in a state of compression with each other such that the components (302/304/306) of the coupler do not become detached from each other. a spherical bearing that is connectable to the first rotatable shaft for accommodating a radial or angular misalignment between the first and second rotatable shafts (24/42); and a flexible and rotatable coupler that is non-rotatably connected to the first and second rotatable shafts (24/42) for transferring rotation between the first and second rotatable shafts, wherein the flexible and rotatable coupler is either directly or indirectly connected to the spherical bearing, said flexible and rotatable coupler having a flexible component that is configured to flex for accommodating the radial or angular misalignment characterised in that the coupler comprises a first component that is connectable to the first rotatable shaft, a second component that is either directly or indirectly connected to the spherical bearing, the flexible component of the coupler being positioned between the first and second components (302/306), wherein a fastener or the spherical bearing is arranged to maintain the first, flexible, and second components (302/304/306) in a state of compression with each other such that the components (302/304/306) of the coupler do not become detached from each other.
A conductive thermal image receiver element comprising a support, and having on at least one side of the support: an aqueous coatable receiver overcoat layer and aqueous coatable dye receiving layer having a combined thickness ranging from 0.8 μm to 2.0 μm, wherein the aqueous coatable receiver overcoat layer comprises a conductive polymeric material, and wherein the aqueous coatable dye receiving layer comprises a water-dispersible release agent, a crosslinking agent, and a polymer binder matrix consisting essentially of: a water-dispersible acrylic polymer comprising chemically reacted or chemically non-reacted hydroxyl, phospho, phosphonate, sulfo, sulfonate, carboxy, or carboxylate groups; and a water-dispersible polyester that has a T g of 30°C or less; wherein the water-dispersible acrylic polymer is present in an amount of at least 55 weight % of the total aqueous coatable dye-receiving layer weight and is present at a dry ratio to the water-dispersible polyester of at least 1:1. an aqueous coatable receiver overcoat layer and aqueous coatable dye receiving layer having a combined thickness ranging from 0.8 μm to 2.0 μm, wherein the aqueous coatable receiver overcoat layer comprises a conductive polymeric material, and wherein the aqueous coatable dye receiving layer comprises a water-dispersible release agent, a crosslinking agent, and a polymer binder matrix consisting essentially of: a water-dispersible acrylic polymer comprising chemically reacted or chemically non-reacted hydroxyl, phospho, phosphonate, sulfo, sulfonate, carboxy, or carboxylate groups; and a water-dispersible polyester that has a T g of 30°C or less; a water-dispersible acrylic polymer comprising chemically reacted or chemically non-reacted hydroxyl, phospho, phosphonate, sulfo, sulfonate, carboxy, or carboxylate groups; and a water-dispersible polyester that has a T g of 30°C or less; wherein the water-dispersible acrylic polymer is present in an amount of at least 55 weight % of the total aqueous coatable dye-receiving layer weight and is present at a dry ratio to the water-dispersible polyester of at least 1:1.
Apparatus for marshalling load items into singles, with a group of feed devices for delivering piece goods items, wherein assigned to each feed device is a first isolating device for isolating the piece goods items that are delivered with this feed device, and arranged downstream of the first isolating devices of the group of feed devices that form a first isolating stage is a second isolating stage for isolating piece goods items that were not isolated in the first isolating stage, wherein the second isolating stage has a second isolating device and a detection system assigned to it for detecting piece goods items that were not isolated by the second isolating device, with a third isolating stage, arranged downstream of the second isolating stage, for isolating piece goods items that were not isolated in the second isolating stage, which comprises a manual subsequent isolation of piece goods items that were not isolated by the second isolating stage or a return feed of the non-isolated piece goods items that were detected by the detection system for repeat passage through the second isolating stage, with a discharge path for transporting away piece goods items that were isolated in the first, second and third isolating stage, wherein arranged downstream of each first isolating device is a separating device for separating isolated and non-isolated piece goods items, with which non-isolated piece goods items can be transported to the second isolating stage and isolated piece goods items can be transported to the discharge path, and arranged downstream of the second isolating stage is a separating device for separating isolated piece goods items, with which non-isolated piece goods items can be delivered to the third isolating stage and isolated piece goods items can be delivered to the discharge path.