mhurhangee/ep-ind-claims huggingface dataset:
Attachment arrangement with: an attachment structure for attaching a personal protection equipment to an underground structure which comprises a hollow space, wherein the attachment structure comprises: a carrier element which comprises at least one elongated through hole structure which comprises at least one elongated hole which comprises a ratio of length to width of larger than five, and which is respectively adapted to receive an attachment element at a selectable position along the through hole structure, to anchor the attachment element to a hollow space of the underground structure for attaching the attachment structure to the underground structure; and a personal protection equipment attachment at the carrier element which is adapted for attaching the personal protection equipment to the attachment structure; and the underground structure which comprises the hollow space to which the attachment structure is attached, wherein the hollow space of the underground structure is a material-free region in the interior of the underground structure. a carrier element which comprises at least one elongated through hole structure which comprises at least one elongated hole which comprises a ratio of length to width of larger than five, and which is respectively adapted to receive an attachment element at a selectable position along the through hole structure, to anchor the attachment element to a hollow space of the underground structure for attaching the attachment structure to the underground structure; and a personal protection equipment attachment at the carrier element which is adapted for attaching the personal protection equipment to the attachment structure; and the underground structure which comprises the hollow space to which the attachment structure is attached, wherein the hollow space of the underground structure is a material-free region in the interior of the underground structure.
A drive support device comprising: an acquisition unit operable to acquire time-series signal information relating to the lighting state of a signal; and drive support unit (110, 122, 126) operable to carry out drive support of a host vehicle using the signal information acquired by the acquisition unit, wherein: when the drive support unit is operable to carry out the drive support by at least one of starting and ending and the current time is a time at which the signal is switched, the drive support is only carried out after a wait time, such that the time is asynchronous with the signal time; when the drive support unit is operable to carry out the drive support by at least one of starting and ending and the current time is not the time at which the signal is switched, the drive support is carried out immediately. an acquisition unit operable to acquire time-series signal information relating to the lighting state of a signal; and drive support unit (110, 122, 126) operable to carry out drive support of a host vehicle using the signal information acquired by the acquisition unit, wherein: when the drive support unit is operable to carry out the drive support by at least one of starting and ending and the current time is a time at which the signal is switched, the drive support is only carried out after a wait time, such that the time is asynchronous with the signal time; when the drive support unit is operable to carry out the drive support by at least one of starting and ending and the current time is not the time at which the signal is switched, the drive support is carried out immediately. when the drive support unit is operable to carry out the drive support by at least one of starting and ending and the current time is a time at which the signal is switched, the drive support is only carried out after a wait time, such that the time is asynchronous with the signal time; when the drive support unit is operable to carry out the drive support by at least one of starting and ending and the current time is not the time at which the signal is switched, the drive support is carried out immediately.
A child safety seat comprising an energy absorbing element with • a first housing component, • a second housing component, and • a resilient or deformable member, wherein said second housing component exhibits a surface that is adapted for guiding a seat belt and wherein said resilient or deformable member is designed and arranged to absorb energy from a movement of said second housing component towards said first housing component, characterized in that said second housing component is movably mounted to said first housing component to allow a crash-induced tilting of said child safety seat to be counteracted by a movement of said second housing component relative to said first housing component, and wherein said first housing component is firmly mounted to said child safety seat. • a first housing component, • a second housing component, and • a resilient or deformable member,
A battery module housing, which includes a top plate and a bottom plate forming an upper wall and a lower wall, and a first side plate and a second side plate forming both side walls, the battery module housing having a rectangular tube shape provided to accommodate battery cells in an inner space thereof, wherein the battery module housing has bonding portions formed by applying an adhesive along a longitudinal direction to four sites corresponding to sites between both side edges of the top plate opposite to each other and top surfaces of the first side plate and second side plate and sites between both side edges of the bottom plate opposite to each other and bottom surfaces of the first side plate and second side plate, wherein the bonding portion has a detachable jig insertion space formed at a predetermined location, and the adhesive is not applied to the detachable jig insertion space. wherein the battery module housing has bonding portions formed by applying an adhesive along a longitudinal direction to four sites corresponding to sites between both side edges of the top plate opposite to each other and top surfaces of the first side plate and second side plate and sites between both side edges of the bottom plate opposite to each other and bottom surfaces of the first side plate and second side plate, wherein the bonding portion has a detachable jig insertion space formed at a predetermined location, and the adhesive is not applied to the detachable jig insertion space.
A facet joint restoration device (410, 510) for use in restoring a facet joint surface comprising: (a) a cephalad facet joint element comprising: a flexible member (422, 522) adapted to engage a first vertebrae and an artificial cephalad joint (426, 526); and (b) a caudad facet joint element comprising a connector having a screw or a stem (412, 512) that is adapted for fixation to a second vertebrae and an artificial caudad joint (428, 528) adapted to engage the artificial cephalad joint, characterized in that the connector further comprises a base (416, 516), an adjustable connection (414, 514) for connecting the base to the artificial caudad joint allowing adjustment and rotation of the artificial caudad joint along and around one or more axes relative to the screw or stem during and after implantation of the screw or stem, and a base anchor for locking the artificial caudad joint in place. (a) a cephalad facet joint element comprising: a flexible member (422, 522) adapted to engage a first vertebrae and an artificial cephalad joint (426, 526); and (b) a caudad facet joint element comprising a connector having a screw or a stem (412, 512) that is adapted for fixation to a second vertebrae and an artificial caudad joint (428, 528) adapted to engage the artificial cephalad joint,
A manufacturing method of a yeast-derived seasoning having a nitrogen content in a solid content of 11% or more as measured using the Kjeldahl method, wherein a cell wall lytic enzyme having no protease activity is added and allowed to act at 30 °C or more for one to six hours on yeast cell bodies from which yeast extract has been extracted, the cell wall lytic enzyme being glucanase, a heat treatment is performed at 50 °C or more for five minutes or more after the action of the cell wall lytic enzyme, after which a cell wall structural component is removed by a centrifuge and a fraction of primarily protein is obtained, the fraction of primarily protein is taken as-is or is dried to obtain a yeast protein being a composition having a protein content of 60% or more as measured using the Kjeldahl method, a protease is allowed to act on the thus-produced yeast protein, centrifugal separation is performed and the yeast-derived seasoning is obtained as the supernatant which may be concentrated and spray-dried, and wherein the yeast cell bodies from which yeast extract has been extracted are a residue left after the yeast extract has been removed from the yeast by an extraction process using one or more of hot water, alkaline solution, autolysis, mechanical pulverization, a cell wall lytic enzyme, a protease, ribonuclease, or deaminase.
A sensor body comprising a conductive sheet, wherein the conductive sheet contains a first conductive part and a second conductive part separated by a substrate, the first conductive part and the second conductive part are disposed to be electrically isolated from each other, the first conductive part contains two or more first conductive patterns, the first conductive patterns each extend in a first direction, the first conductive patterns are arranged in a second direction, the second direction is perpendicular to the first direction, the first conductive part contains a first dummy pattern containing a plurality of first auxiliary wires arranged around the first conductive patterns, the second conductive part contains two or more second conductive patterns, the second conductive patterns each extend in the second direction, the second conductive patterns are arranged in the first direction, the second conductive part contains a second dummy pattern containing a plurality of second auxiliary wires arranged around the second conductive patterns, the first condutive patterns, the first auxiliary wires, the second conductive patterns, and the second auxiliary wires are made from thin metal wires having a line width ranging from 1 μm to 15 μm, the extension directions of the first conductive patterns and the second conductive patterns are crossed as viewed from above, the first dummy pattern and the second dummy pattern overlap with each other to form a combined pattern between the first conductive patterns and the second conductive patterns as viewed above, in the combined pattern, a first axis line of the first auxiliary wire and a second axis line of the second auxiliary wire are arranged approximately in parallel, and the distance between the first axis line and the second axis line is at least 1/2 of a smaller line width among the line widths of the first auxiliary wire and the second auxiliary wire and at most 100 μm.
Method for operating a flexographic printing press with at least one flexographic printing form, with a printing cylinder carrying a sleeve for the flexographic printing form or with a flexographic printing cylinder for the flexographic printing form and with an impression cylinder which forms a printing nip with the printing cylinder or the flexographic printing cylinder, wherein a web of printing material is printed in the printing nip and a transport speed of the web is set, characterized in that the setting is carried out automatically either as a function of a dot density (303, 304) of the flexographic printing form, or of data derived computationally therefrom, or as a function of channels (305, 306, 307, 307a, 308) of the flexographic printing form, of the impression cylinder or of the flexographic printing cylinder, or of data derived computationally therefrom, wherein the dot density is a location-dependent density of printing projections of the flexographic printing form, and wherein the dot density or the channels is/are measured without contact or wherein the dot density is determined computationally from prepress data for producing the flexographic printing form.
Support and guiding apparatus for feeder lines comprising at least one feed pipe for an excavation device, said support and guiding apparatus comprising at least one support branch and a plurality of transverse connection elements or crosspieces adapted for guiding said at least one feed pipe and connected to said at least one support branch, where said at least one support branch comprises: - at least one ring chain comprising a first series of rings and a second series of rings linked to one another in an alternate manner, defining a longitudinal axis when said at least one ring chain is placed in a deployed configuration; - a plurality of spacer elements coupled to respective rings of said first series of rings so that they cannot slide with respect thereto, each of said spacer elements having a first seat that houses a respective ring of said first series of rings by orienting it in a substantially stable manner on a first lying plane, a second seat and a third seat opposite each other that partially house the rings of said second series of rings linked to the one housed in said first seat by orienting them on a second lying plane transverse to said first lying plane, each of said spacer elements being arranged to prevent the longitudinal sliding between said rings (60A, 60B) and to allow the rotation of said rings of said second series of rings only on said second lying plane around a rotation axis, said rotation axis being perpendicular to the longitudinal axis of said ring chain and perpendicular to said second lying plane. - at least one ring chain comprising a first series of rings and a second series of rings linked to one another in an alternate manner, defining a longitudinal axis when said at least one ring chain is placed in a deployed configuration; - a plurality of spacer elements coupled to respective rings of said first series of rings so that they cannot slide with respect thereto, each of said spacer elements having a first seat that houses a respective ring of said first series of rings by orienting it in a substantially stable manner on a first lying plane, a second seat and a third seat opposite each other that partially house the rings of said second series of rings linked to the one housed in said first seat by orienting them on a second lying plane transverse to said first lying plane, each of said spacer elements being arranged to prevent the longitudinal sliding between said rings (60A, 60B) and to allow the rotation of said rings of said second series of rings only on said second lying plane around a rotation axis, said rotation axis being perpendicular to the longitudinal axis of said ring chain and perpendicular to said second lying plane.
System for a heating, ventilation or air-conditioning device of a vehicle, comprising: - an electric motor; - a motor support (208, 205, 203)attached to the motor, wherein said motor support can be installed in an opening formed on a volute of the heating, ventilation or air-conditioning device, - a control module of said electric motor; wherein the control module is installed on the motor support (208, 205, 203) in a recess, said recess being formed between a ring of said motor support (208, 205, 203) surrounding the motor and a bearing surface of said motor support (208, 205, 203) connected to the ring and adapted to be in contact with the volute, characterized in that a main direction of said control module is colinear with an axis of rotation of the motor, the main direction of the control module being a direction oriented along the largest dimension of the control module. - an electric motor; - a motor support (208, 205, 203)attached to the motor, wherein said motor support can be installed in an opening formed on a volute of the heating, ventilation or air-conditioning device, - a control module of said electric motor; wherein the control module is installed on the motor support (208, 205, 203) in a recess, said recess being formed between a ring of said motor support (208, 205, 203) surrounding the motor and a bearing surface of said motor support (208, 205, 203) connected to the ring and adapted to be in contact with the volute,
A lattice mismatched, metamorphic semiconductor device, comprising: a base layer; an emitter layer in electrical connectivity with the base layer, wherein the base layer and emitter layer form a p-n junction in a photovoltaic cell or other optoelectronic device; and a low bandgap absorber region disposed in the base layer, wherein the low bandgap absorber region is incorporated into a quasi-neutral region of the base layer, and the low bandgap absorber region has a higher photogeneration and a lower bandgap than surrounding semiconductor layers; and wherein the low bandgap absorber region comprises tensile and compressive regions having alternating smaller and larger lattice constants than that of the rest of the metamorphic device, to provide a strain-balanced structure. a base layer; an emitter layer in electrical connectivity with the base layer, wherein the base layer and emitter layer form a p-n junction in a photovoltaic cell or other optoelectronic device; and a low bandgap absorber region disposed in the base layer, wherein the low bandgap absorber region is incorporated into a quasi-neutral region of the base layer, and the low bandgap absorber region has a higher photogeneration and a lower bandgap than surrounding semiconductor layers; and wherein the low bandgap absorber region comprises tensile and compressive regions having alternating smaller and larger lattice constants than that of the rest of the metamorphic device, to provide a strain-balanced structure.
A compound selected from 4-[1-(2-methyl-1H-benzimidazol-5-yl)-1H-imidazo[4,5-c]pyridin-2-yl]-1,2,5-oxadiazol-3-amine and 3-{1-[1-(4-methoxyphenyl)piperidin-4-yl]-4-methyl-1H-imidazo[4,5-c]pyridin-2-yl}pyrazin-2-amine, or a salt, a hydrate, or a solvate thereof.
A method comprising: forming a substrate scaffold structure (307, 707) for use in the fabrication of a reversibly deformable circuit board, the substrate scaffold structure (307, 707) comprising a predefined waveform topography (916, 917), the waveform topography (916, 917) of the substrate scaffold structure (307, 707) predefined to facilitate operational reversible deformation of the circuit board; depositing one or more scaffold-conforming thin film layers (309, 409) on top of the substrate scaffold structure (307, 707), the one or more scaffold-conforming thin film layers being adapted for use in forming electronic circuit elements of the reversibly deformable circuit board; wherein the waveform topography (916, 917) comprises a main waveform and a sub-waveform formed on top of the main waveform, and wherein the sub-waveform has a smaller period and amplitude than the main waveform. forming a substrate scaffold structure (307, 707) for use in the fabrication of a reversibly deformable circuit board, the substrate scaffold structure (307, 707) comprising a predefined waveform topography (916, 917), the waveform topography (916, 917) of the substrate scaffold structure (307, 707) predefined to facilitate operational reversible deformation of the circuit board; depositing one or more scaffold-conforming thin film layers (309, 409) on top of the substrate scaffold structure (307, 707), the one or more scaffold-conforming thin film layers being adapted for use in forming electronic circuit elements of the reversibly deformable circuit board; wherein the waveform topography (916, 917) comprises a main waveform and a sub-waveform formed on top of the main waveform, and wherein the sub-waveform has a smaller period and amplitude than the main waveform.
A medicament delivery vehicle, the vehicle comprising: tubular members adapted to removably receive a plurality of radioactive particles; and an expandable stent being adapted to receive the tubular members; wherein the expandable stent is a hollow tubular expandable stent adapted to receive a plurality of radioactive particles along its inner surface in a spiral configuration. tubular members adapted to removably receive a plurality of radioactive particles; and an expandable stent being adapted to receive the tubular members;
A co-rotating self-cleaning two-screw extruder with a gradual number of threads and through self-cleaning function, said extruder comprising a barrel and a screw assembly, the screw assembly being located in a barrel chamber of the barrel, wherein the screw assembly includes a first screw and a second screw, which co-rotate at the same speed in engagement; characterized in that the first screw includes a first single threaded element, a first transition element, a multiple threaded element, a second transition element and a second single threaded element that are connected in sequence; and the second screw correspondingly includes a first single threaded element, a third transition element, a multiple threaded element, a fourth transition element and a second single threaded element that are connected in sequence; wherein the materials, while moving in the flow passage, are transferred by rotation of the first and second screws, and meanwhile get their respective compositions mixed based on the structure of a gradual number of threads, with the flow passage expanded, contracted and re-expanded in shape in sequence; wherein the materials undergo the single-to-multiple threaded, multiple-to-single threaded and again single-to-multiple threaded chaotic mixing in sequence, while the materials are transferred, the first and second screws (3, 4) always keep engaged, and achieve the self-cleaning effect by wiping each other.
Use of a testing station for testing an automated picking system robotic device, the robotic device having a first set of wheels that is arranged to move the robotic device in a X direction and a second set of wheels that is arranged to move the robot device in a Y direction, the testing station comprising: a moving-bed for moving the wheels of a robotic device; the moving-bed comprising a moveable belt which is moved by a pair of rollers or a series of rollers arranged to be engageable with the wheels of the robotic device; a controller to vary the rotation of the rollers; and one or more adjustable retaining arms for positioning the robotic device on the moving bed, the use of the testing station comprising the steps of: i) moving the robotic device wheels in the X direction by engaging the moving bed with the first set of wheels; ii) moving the robotic device wheels in the Y direction by engaging the moving bed with the second set of wheels. i) moving the robotic device wheels in the X direction by engaging the moving bed with the first set of wheels; ii) moving the robotic device wheels in the Y direction by engaging the moving bed with the second set of wheels.