mhurhangee/patent-ind-claim-en huggingface dataset:
A heat-absorbing soda lime silica glass plate containing iron, tin, selenium, cobalt and sulfur, wherein the mass ratio of divalent iron as calculated as Fe 2 O 3 to total iron as calculated as Fe 2 O 3 is at least 55%, as represented by mass% based on oxides total iron as calculated as Fe 2 O 3 : 0.01 to 1.0%, total tin as calculated as SnO 2 : 0.02 to 0.3%, Se : 0.0002 to 0.0010%, CoO : 0.0002 to 0.0020%, and total sulfur as calculated as SO 3 : 0.002 to 0.1%, the ratio Tv/Te of the visible light transmittance Tv (by illuminant A, 2° visual field) as defined in JIS R3106 calculated as 4 mm thickness of the glass plate to the solar transmittance Te as defined in JIS R3106 , calculated as 4 mm thickness of the glass plate, is at least 1.5, the visible light transmittance Tv (by illuminant A, 2° visual field) is higher than 65% as defined in JIS R3106 calculated as 4 mm thickness of the glass plate, the excitation purity Pe is at most 7% as defined in JIS Z8701 calculated as 4 mm thickness of the glass plate, the dominant wavelength Dw of the transmitted light calculated as 4 mm thickness of the glass plate, as defined in JIS Z8701 , is at most 510 nm, and β-OH is at least 0.15 mm -1 , obtained by the following formula: β − OH mm − 1 = − log 10 T 3500 ⁢ cm − 1 / T 4000 ⁢ cm − 1 / t , wherein T 3500cm-1 is a transmittance (%) at a wave number of 3,500 cm -1 , T 4000cm-1 is a transmittance (%) at a wave number of 4,000 cm -1 , and t is the thickness (mm) of the glass plate.
A refrigerator comprising: a main body ; a storage chamber provided in the main body ; an evaporator (E) configured to generate cool air to the storage chamber ; and a cool air duct forming an air flow passage such that cool air generated by the evaporator (E) is supplied to the storage chamber , wherein the cool air duct includes: a front panel formed of a metal material and having cool air outlets ; a cool air flow passage unit provided at a rear side of the front panel ; and a fan mounting unit provided at a lower side of the cool air flow passage unit and configured to mount a fan (F) that allows cool air generated by the evaporator (E) to be supplied to the storage chamber , wherein the cool air flow passage unit includes a first part coupled to a second part to form the air flow passage between the first part and the second part , the first part having openings to discharge cool air guided through the air flow passage to inside of the storage chamber through the cool air outlets of the front panel ; wherein the second part is disposed at a back side of the first part . a main body ; a storage chamber provided in the main body ; an evaporator (E) configured to generate cool air to the storage chamber ; and a cool air duct forming an air flow passage such that cool air generated by the evaporator (E) is supplied to the storage chamber , wherein the cool air duct includes: a front panel formed of a metal material and having cool air outlets ; a cool air flow passage unit provided at a rear side of the front panel ; and a fan mounting unit provided at a lower side of the cool air flow passage unit and configured to mount a fan (F) that allows cool air generated by the evaporator (E) to be supplied to the storage chamber , wherein the cool air flow passage unit includes a first part coupled to a second part to form the air flow passage between the first part and the second part , the first part having openings to discharge cool air guided through the air flow passage to inside of the storage chamber through the cool air outlets of the front panel ; wherein the second part is disposed at a back side of the first part . a front panel formed of a metal material and having cool air outlets ; a cool air flow passage unit provided at a rear side of the front panel ; and a fan mounting unit provided at a lower side of the cool air flow passage unit and configured to mount a fan (F) that allows cool air generated by the evaporator (E) to be supplied to the storage chamber , wherein the cool air flow passage unit includes a first part coupled to a second part to form the air flow passage between the first part and the second part , the first part having openings to discharge cool air guided through the air flow passage to inside of the storage chamber through the cool air outlets of the front panel ; wherein the second part is disposed at a back side of the first part .
Foundation for a wind turbine , comprising base means with a center zone and an outer zone , wherein the outer zone is configured for carrying all of the weight of the wind turbine , wherein in the center zone , the base means comprise a chamber , wherein the foundation further comprises energy storage means , wherein the energy storage means comprise a flywheel pivotally arranged within the chamber for storing rotational energy, and wherein the energy storage means further comprise transmission means for transforming energy of a wind turbine into rotational energy of the flywheel and for transforming rotational energy of the flywheel into electrical energy, wherein the transmission means comprise a flywheel electric motor for transforming electrical energy into rotational energy of the flywheel , characterized in that the transmission means comprise electric control means for providing electrical energy from the grid (G) to the flywheel electric motor .
An organic light-emitting display device comprising: a substrate having an active area (A/A) and a non-active area (N/A); a first electrode located on the substrate on the active area (A/A); an organic layer comprising an emissive layer located on the first electrode ; a second electrode located on the organic layer ; an auxiliary electrode located on the substrate on the non-active area (N/A); and a passivation layer located on the auxiliary electrode , the passivation layer having a reverse taper-shaped end positioned overlying the auxiliary electrode , wherein the passivation layer has a single-layer or multi-layer structure made of at least one inorganic material selected from among SiNx and SiOx, wherein the second electrode is electrically connected to the auxiliary electrode , wherein the auxiliary electrode is located under the end of the passivation layer and comprises a first layer being longer than a second layer located under the passivation layer and having a taper shape, wherein the second electrode is connected to the first layer of the auxiliary electrode , and is also connected to a portion or the entirety of the side surface of the second layer of the auxiliary electrode . a substrate having an active area (A/A) and a non-active area (N/A); a first electrode located on the substrate on the active area (A/A); an organic layer comprising an emissive layer located on the first electrode ; a second electrode located on the organic layer ; an auxiliary electrode located on the substrate on the non-active area (N/A); and a passivation layer located on the auxiliary electrode , the passivation layer having a reverse taper-shaped end positioned overlying the auxiliary electrode , wherein the passivation layer has a single-layer or multi-layer structure made of at least one inorganic material selected from among SiNx and SiOx, wherein the second electrode is electrically connected to the auxiliary electrode , wherein the auxiliary electrode is located under the end of the passivation layer and comprises a first layer being longer than a second layer located under the passivation layer and having a taper shape, wherein the second electrode is connected to the first layer of the auxiliary electrode , and is also connected to a portion or the entirety of the side surface of the second layer of the auxiliary electrode .
Scissors, particularly for cutting high-strength textiles and their composites, such as e.g. bandages, having scissor branches (12, 14; 112, 114) consisting of punched sheet steel, which bear at one end in each case one scissor eye (16, 18; 116, 118), are connected pivotably with one another at a scissor joint (20; 120) and, at least in the region of the scissor blades (22, 24; 122, 124), which taper towards the scissor tip (40; 140), are reinforced by a bead extending along the scissor blade (22, 24; 122, 124) concerned, wherein the bead has a contour which starting from the scissor joint (20; 120) follows the shape of the scissor blade (22; 122) as far as the region of the scissor tip (40; 140) and is designed such that its breadth (B32, B34) and depth (T32, T34) decreases with increasing distance from the scissor joint, preferably decreases steadily, wherein the depth (T32, T34) of the bead in the scissor blade (22, 24; 122,; 120) reduces substantially evenly starting from the scissor joint towards the scissor tip (40; 140) and tapers off to zero in the region of the scissor tip (40; 140), characterised in that the scissor blades (22, 24; 122, 124) form in each case an edge portion which surrounds the respective bead and the respective bead is designed such that, viewed in cross-section, radii of curvature (RB) result which are as great as possible in the edge region between the bead and the edge portion.
A heat exchanger comprising: a plurality of flat pipes arranged with flat surfaces being opposed to each other; and a plurality of fins each including a plurality of insertion parts that extends in an insertion direction that crosses a direction in which the flat pipes are arranged and a longitudinal direction of the flat pipe, at least part of each of the flat pipes being inserted into the corresponding insertion part , wherein each of the fins includes a cut-and-raised part that is cut and raised in a thickness direction between the plurality of insertion parts, and a rib that is formed between the insertion part and the cut-and-raised part., characterized in that the fin includes a plurality of the cut-and-raised parts aligned in the insertion direction of the flat pipe, and the rib continuously extends along the insertion direction of the flat pipe between the insertion part and the plurality of cut-and-raised parts. a plurality of flat pipes arranged with flat surfaces being opposed to each other; and a plurality of fins each including a plurality of insertion parts that extends in an insertion direction that crosses a direction in which the flat pipes are arranged and a longitudinal direction of the flat pipe, at least part of each of the flat pipes being inserted into the corresponding insertion part , wherein each of the fins includes a cut-and-raised part that is cut and raised in a thickness direction between the plurality of insertion parts, and a rib that is formed between the insertion part and the cut-and-raised part., characterized in that the fin includes a plurality of the cut-and-raised parts aligned in the insertion direction of the flat pipe, and the rib continuously extends along the insertion direction of the flat pipe between the insertion part and the plurality of cut-and-raised parts.
Method for controlling a display on a head-up display device for a motor vehicle , comprising the steps of: - generating content for a presentation by the head-up display device , the generated content containing at least one piece of static information; and - determining a road profile in front of the motor vehicle ; - shifting the content presented by the head-up display device in accordance with the determined road profile; characterized in that the road profile is determined from eye movements of the driver, a filter being used to reject faster, brief eye movements; and in that the presented content is shifted in such a way that it is presented in a manner shifted in the direction of the bend during cornering. - generating content for a presentation by the head-up display device , the generated content containing at least one piece of static information; and - determining a road profile in front of the motor vehicle ; - shifting the content presented by the head-up display device in accordance with the determined road profile; characterized in that the road profile is determined from eye movements of the driver, a filter being used to reject faster, brief eye movements; and in that the presented content is shifted in such a way that it is presented in a manner shifted in the direction of the bend during cornering.
A device for transporting and/or cleaning cutting set parts (4a-e) of a mincing machine, having a grid , characterised in that the grid has a plurality of receiving elements , in the form of mandrels , for respectively receiving and positioning the cutting set parts (4a-e), and in that the device has a holding device for holding the cutting set parts (4a-e) on the grid .
A method for a target image reconstruction, comprising: emitting stepped frequency waveforms having different constant frequencies at different periods of time; modulating the stepped frequency waveforms into frequency ranges each having a first frequency and a second frequency, wherein each of the stepped frequency waveforms is increased from the first frequency to the second frequency based on a range function, wherein the modulated stepped frequency waveforms have a sparsity factor; transmitting the modulated stepped frequency waveforms to a target and accepting reflection of the modulated stepped frequency waveforms reflected from the target ; interfering the modulated stepped frequency waveforms and the reflection of the modulated stepped frequency waveforms to produce beat signals of interferences between the modulated stepped frequency waveforms and the reflection of the modulated stepped frequency waveforms; and reconstructing an image of the target from the beat signals, characterized in that the sparsity factor is such that a sum of the frequency ranges is less than a total bandwidth over a measurement of the target . emitting stepped frequency waveforms having different constant frequencies at different periods of time; modulating the stepped frequency waveforms into frequency ranges each having a first frequency and a second frequency, wherein each of the stepped frequency waveforms is increased from the first frequency to the second frequency based on a range function, wherein the modulated stepped frequency waveforms have a sparsity factor; transmitting the modulated stepped frequency waveforms to a target and accepting reflection of the modulated stepped frequency waveforms reflected from the target ; interfering the modulated stepped frequency waveforms and the reflection of the modulated stepped frequency waveforms to produce beat signals of interferences between the modulated stepped frequency waveforms and the reflection of the modulated stepped frequency waveforms; and reconstructing an image of the target from the beat signals, characterized in that the sparsity factor is such that a sum of the frequency ranges is less than a total bandwidth over a measurement of the target .
Vacuum box for a vacuum belt filter, the vacuum box comprising an inside space for receiving a filtrate, wherein the vacuum box comprises: a capillary filter , the bubble point of the capillary filter being in the range of 0.5 bar to 1.5 bar, and a bottom , two opposite long sides , two opposite short sides , and a top as well as an inside space for receiving filtrate originating from a slurry; wherein the vacuum box is provided with an outlet having a check valve enabling a fluid flow from the inside space of the vacuum box to the outside of the vacuum box for creating an underpressure in the vacuum box , the vacuum box is capable of maintaining said underpressure within its inside space without being connected to a vacuum source, and wherein the check valve prevents a fluid flow to the inside space of the vacuum box. a capillary filter , the bubble point of the capillary filter being in the range of 0.5 bar to 1.5 bar, and a bottom , two opposite long sides , two opposite short sides , and a top as well as an inside space for receiving filtrate originating from a slurry; wherein the vacuum box is provided with an outlet having a check valve enabling a fluid flow from the inside space of the vacuum box to the outside of the vacuum box for creating an underpressure in the vacuum box , the vacuum box is capable of maintaining said underpressure within its inside space without being connected to a vacuum source, and wherein the check valve prevents a fluid flow to the inside space of the vacuum box.
A method , implemented via software module(s), for real time bypass detection at a scanner, the method comprising: attempting to correlate an image for an item, captured by a scanner during a transaction at a terminal, with an item identifier recorded for the item during the transaction; and determining whether an alert should be raised for intervention during the transaction based on an attempted correlation between the image of the item and the item identifier recorded for the item during the transaction; characterised by raising the alert when there is no identifier detected for the item; and, when there is no item identifier detected for the item, correlating a bypass item scan event, detected by the scanner and for which the alert was raised, with a security video stream from a camera capturing video of the transaction for determining if the bypass was intended as fraud or theft. attempting to correlate an image for an item, captured by a scanner during a transaction at a terminal, with an item identifier recorded for the item during the transaction; and determining whether an alert should be raised for intervention during the transaction based on an attempted correlation between the image of the item and the item identifier recorded for the item during the transaction; characterised by raising the alert when there is no identifier detected for the item; and, when there is no item identifier detected for the item, correlating a bypass item scan event, detected by the scanner and for which the alert was raised, with a security video stream from a camera capturing video of the transaction for determining if the bypass was intended as fraud or theft.
Conveyor roller for a conveyor device, in particular for conveying pallets and/or containers, having a roller body and a drive head which is inserted into a free end of the roller body and has an attachment socket on which a circumferential annular groove is provided, characterised in that at least one recess is formed in the annular groove , which recess has a depression with a greater depth in the radial direction than the rest of the annular groove, and that the annular groove and the recess are at least partially filled with material of the roller body for fastening the drive head to the roller body in a manner that is fixed against sliding in the axial direction (Ax) and against rotation in the circumferential direction (Um). a roller body and a drive head which is inserted into a free end of the roller body and has an attachment socket on which a circumferential annular groove is provided, characterised in that at least one recess is formed in the annular groove , which recess has a depression with a greater depth in the radial direction than the rest of the annular groove, and that the annular groove and the recess are at least partially filled with material of the roller body for fastening the drive head to the roller body in a manner that is fixed against sliding in the axial direction (Ax) and against rotation in the circumferential direction (Um).
A hardware-based processing node of a plurality of hardware-based processing nodes for use in an object memory fabric , the hardware-based processing node comprising: a memory module for storing and managing a plurality of memory objects in a hierarchy of the object memory fabric , the memory module comprising a Dual In-line Memory Module, DIMM, wherein: each memory object is arranged to be created natively within the memory module , each memory object is arranged to be accessed through an object namespace using a single memory reference instruction without Input/Output, I/O, instructions, each memory object is arranged to be managed by the memory module through the object namespace at a single memory layer without distinction between temporary memory and persistent storage, and the object memory fabric is arranged to distribute and track the memory objects across the hierarchy of the object memory fabric and the plurality of hardware-based processing nodes on a per-object basis. each memory object is arranged to be created natively within the memory module , each memory object is arranged to be accessed through an object namespace using a single memory reference instruction without Input/Output, I/O, instructions, each memory object is arranged to be managed by the memory module through the object namespace at a single memory layer without distinction between temporary memory and persistent storage, and the object memory fabric is arranged to distribute and track the memory objects across the hierarchy of the object memory fabric and the plurality of hardware-based processing nodes on a per-object basis.
An inner drum for use in a dryer/mixer in connection with the production of an aggregate-binder mix, wherein the dryer/mixer includes a fixed outer drum surrounding the inner drum such that the inner drum may rotate within the outer drum, a mixing chamber formed between an outer surface of the inner drum and an inner surface of the outer drum where virgin aggregate and a binder are mixed together to form an aggregate-binder mix, an aggregate inlet through which virgin aggregate may be passed into the mixing chamber , a binder inlet through which a binder may be passed into the mixing chamber , and a mix outlet through which the aggregate-binder mix may be passed out of the mixing chamber , the inner drum further comprising: a plurality of mixing paddles disposed on the outer surface of the inner drum and arranged in a plurality of rows , wherein the mixing paddles are configured to rotate through the mixing chamber as the inner drum rotates within the outer drum and to mix together aggregate and binder located within the mixing chamber; an interstitial space formed between each adjacent pair of rows of mixing paddles through which the aggregate and binder may pass; a plurality of material leads that extend along the mixing chamber and along which aggregate material preferentially travels as a result of a location and orientation of the plurality of mixing paddles ; characterized by at least one interstitial mixing paddle disposed on the outer surface of the inner drum and located in one of the interstitial spaces and also positioned at one of the material leads , wherein the interstitial mixing paddle is configured to rotate through the mixing chamber as the inner drum rotates within the outer drum and to mix together aggregate and binder located within the mixing chamber. a plurality of mixing paddles disposed on the outer surface of the inner drum and arranged in a plurality of rows , wherein the mixing paddles are configured to rotate through the mixing chamber as the inner drum rotates within the outer drum and to mix together aggregate and binder located within the mixing chamber; an interstitial space formed between each adjacent pair of rows of mixing paddles through which the aggregate and binder may pass; a plurality of material leads that extend along the mixing chamber and along which aggregate material preferentially travels as a result of a location and orientation of the plurality of mixing paddles ; characterized by at least one interstitial mixing paddle disposed on the outer surface of the inner drum and located in one of the interstitial spaces and also positioned at one of the material leads , wherein the interstitial mixing paddle is configured to rotate through the mixing chamber as the inner drum rotates within the outer drum and to mix together aggregate and binder located within the mixing chamber.