mhurhangee/ep-ind-claims huggingface dataset:
Toy puppet, consisting of: - a first half-shell internally hollow and having a first joining edge and a first surface shaped to define one half of a hemisphere; - a second half-shell internally hollow and having a second joining edge and a second surface shaped to define one half of a hemisphere; - a balancing element; wherein said half-shells (2, 5) can be assembled together at said joining edges (3, 6) to form, in an assembly configuration, a single body reproducing the features of a character, with said first surface and said second surface arranged adjacent to form a substantially hemispherical lower surface (4, 7) inside which said balancing element is housed; and wherein said joining edges (3, 6) can be associated with each other by interposition of union and centering means (9, 10, 11, 12), comprising a first protrusion obtained along said first joining edge and a second protrusion obtained along said second joining edge, said protrusions (11, 12) being associable with each other by interlocking; characterized by the fact that: - said balancing element has a substantially hemispherical shape; and - said union and centering means (9, 10, 11, 12) further comprises at least two locking elements (9, 10) associated with said half-shells (2, 5) apart from said joining edges (3, 6) and suitable for the interlocked mating of said half-shells (2, 5), said locking elements (9, 10) comprising, in turn, a first pin element associated with said first half-shell and a second pin element having a cavity adapted to accommodate said first pin element. - a first half-shell internally hollow and having a first joining edge and a first surface shaped to define one half of a hemisphere; - a second half-shell internally hollow and having a second joining edge and a second surface shaped to define one half of a hemisphere; - a balancing element; - said balancing element has a substantially hemispherical shape; and - said union and centering means (9, 10, 11, 12) further comprises at least two locking elements (9, 10) associated with said half-shells (2, 5) apart from said joining edges (3, 6) and suitable for the interlocked mating of said half-shells (2, 5), said locking elements (9, 10) comprising, in turn, a first pin element associated with said first half-shell and a second pin element having a cavity adapted to accommodate said first pin element.
Packaging device for highly compressed bales on a baling press, wherein the packaging device has a supply device for a web-like packaging material, in particular a film web, and a wrapping apparatus for applying an annular surrounding sleeve web, in particular a film sleeve, to the free lateral faces of the compressed bale held between press rams, wherein the wrapping apparatus is arranged so as to be movable by way of a transport means relative to the compressed bale and the supply device is arranged in a manner separated spatially and kinematically from the wrapping apparatus, wherein the supply device is arranged in a stationary manner and has a receptacle for a web supply, in particular a coil, wherein the receptacle and the web supply are arranged with a gap in relation to the held compressed bale, characterized in that the supply device has a web guide for feeding the packaging material to the wrapping apparatus, wherein the web guide bridges the gap.
A method carried out by a broadband gateway (102, 200) communicatively coupled to a plurality of devices (104, 152), wherein said broadband gateway (102, 200) is operable to handle at least one physical layer connection to at least one corresponding network access service provider (120, 170): providing energy management of services to one or more of said plurality of devices (104, 152), wherein said providing of said energy management comprises: determining energy-related costs associated with providing a service to said one or more of said plurality of devices (104, 152) utilizing said at least one physical layer connection at different data rates; provisioning said service based on said determined energy-related costs; and determining and/or acquiring energy-related information for use in providing said energy management; and negotiating and/or configuring one or more micro-leases during said provisioning of said service for supporting at least a portion of said service; wherein said micro-leases are utilized in lieu of, or in conjunction with service level agreements to enable controlling and/or modifying service performance parameters based on actual needs and/or requirements. providing energy management of services to one or more of said plurality of devices (104, 152), wherein said providing of said energy management comprises: determining energy-related costs associated with providing a service to said one or more of said plurality of devices (104, 152) utilizing said at least one physical layer connection at different data rates; provisioning said service based on said determined energy-related costs; and determining and/or acquiring energy-related information for use in providing said energy management; and determining energy-related costs associated with providing a service to said one or more of said plurality of devices (104, 152) utilizing said at least one physical layer connection at different data rates; provisioning said service based on said determined energy-related costs; and determining and/or acquiring energy-related information for use in providing said energy management; and negotiating and/or configuring one or more micro-leases during said provisioning of said service for supporting at least a portion of said service; wherein said micro-leases are utilized in lieu of, or in conjunction with service level agreements to enable controlling and/or modifying service performance parameters based on actual needs and/or requirements.
Removable anodising agent for anodic oxidation of a metal surface, consisting of or containing - an anodising compound consisting of or containing - an ion conducting medium containing an acid - one or a plurality of cohesion agents in sufficient concentration in order to allow the substantially residue-free removal of the anodising agent from the anodically oxidised metal surface; - an electrically conductive planar structure in contact with the anodising compound as the cathode, characterized in that the acid is lactic acid. - an anodising compound consisting of or containing - an ion conducting medium containing an acid - one or a plurality of cohesion agents in sufficient concentration in order to allow the substantially residue-free removal of the anodising agent from the anodically oxidised metal surface; - an ion conducting medium containing an acid - one or a plurality of cohesion agents in sufficient concentration in order to allow the substantially residue-free removal of the anodising agent from the anodically oxidised metal surface; - an electrically conductive planar structure in contact with the anodising compound as the cathode,
A system (34, 36, 38, 40, 42, 44) for recirculating exhaust gas of an internal combustion engine, wherein the internal combustion engine has an exhaust gas system with a high-pressure part and a low-pressure part, wherein the system (34, 36, 38, 40, 42, 44) has a separating unit, which is configured to separate a condensate from an exhaust gas of the high-pressure part of the exhaust gas system or from an exhaust gas in a high-pressure part (15, 20) of a supply air system of the internal combustion engine, wherein the separating unit is configured to at least partially introduce the condensate separated from the exhaust gas into the low-pressure part of the exhaust gas system via waste disposal line, characterised in that a metering unit (38, 44, 46) is provided, which is configured to introduce a definable or predefined quantity of the condensate or at least of the components of the condensate into at least one supply air inlet channel of a combustion cylinder, wherein the supply air system has a low-pressure part and a high-pressure part, wherein the separating unit is connected to a mixing unit, which is configured to supply an exhaust gas purified by the separating unit and/or at least some of the condensate to the supply air in the high-pressure part of the supply air system.
Fuel injector for internal combustion engines, with an injection valve member on which a seat cone is formed, with which the injection valve member interacts by means of a longitudinal movement with a sealing surface formed on an injector body and, in the process, opens up or closes a fuel flow to at least one injection opening, and the seat cone is provided with an anti-wear layer, characterized in that a peak cone having a cone angle α and the seat cone having a cone angle β are formed at the combustion-chamber-side end of the injection valve member, wherein the cone angle β exceeds a cone angle γ of the sealing surface, and the cone angle α of the peak cone is smaller than the cone angle γ of the sealing surface.
A copper foil for producing graphene consisting of tough pitch copper in accordance with JIS-H3100, or consisting of oxygen free copper in accordance with JIS-H3100, or containing from 0.001% by mass to 0.15% by mass of one or more of elements selected from the group consisting of Sn and Ag to the tough pitch copper or the oxygen free copper, having a thickness of 18 to 50 μm, characterized by having 60 degree gloss in a rolling direction and 60 degree gloss in a direction transverse to rolling direction of each 200% or more to less than 500%, and having a ratio (Ra 1 /Ra 2) between an arithmetic mean roughness Ra 1 in the rolling direction and an arithmetic mean roughness Ra 2 in the direction transverse to rolling direction of 0.7 <= (Ra 1 /Ra 2) <= 1.3. having a thickness of 18 to 50 μm, characterized by having 60 degree gloss in a rolling direction and 60 degree gloss in a direction transverse to rolling direction of each 200% or more to less than 500%, and having a ratio (Ra 1 /Ra 2) between an arithmetic mean roughness Ra 1 in the rolling direction and an arithmetic mean roughness Ra 2 in the direction transverse to rolling direction of 0.7 <= (Ra 1 /Ra 2) <= 1.3.
An apparatus of a first network entity managing artificial intelligence or machine learning trustworthiness in a network, the apparatus comprising transmitting circuitry configured to transmit a first artificial intelligence or machine learning trustworthiness related message towards a second network entity managing artificial intelligence or machine learning trustworthiness in an artificial intelligence or machine learning pipeline in said network, and receiving circuitry configured to receive a second artificial intelligence or machine learning trustworthiness related message from said second network entity, wherein said first artificial intelligence or machine learning trustworthiness related message is related to artificial intelligence or machine learning model explainability as a trustworthiness factor out of trustworthiness factors including at least artificial intelligence or machine learning model fairness, artificial intelligence or machine learning model explainability, and artificial intelligence or machine learning model robustness, said second artificial intelligence or machine learning trustworthiness related message is related to artificial intelligence or machine learning model explainability as said trustworthiness factor, and said first artificial intelligence or machine learning trustworthiness related message comprises a first information element including at least one first artificial intelligence or machine learning model explainability related parameter. transmitting circuitry configured to transmit a first artificial intelligence or machine learning trustworthiness related message towards a second network entity managing artificial intelligence or machine learning trustworthiness in an artificial intelligence or machine learning pipeline in said network, and receiving circuitry configured to receive a second artificial intelligence or machine learning trustworthiness related message from said second network entity, wherein said first artificial intelligence or machine learning trustworthiness related message is related to artificial intelligence or machine learning model explainability as a trustworthiness factor out of trustworthiness factors including at least artificial intelligence or machine learning model fairness, artificial intelligence or machine learning model explainability, and artificial intelligence or machine learning model robustness, said second artificial intelligence or machine learning trustworthiness related message is related to artificial intelligence or machine learning model explainability as said trustworthiness factor, and said first artificial intelligence or machine learning trustworthiness related message comprises a first information element including at least one first artificial intelligence or machine learning model explainability related parameter.
A microprocessor with a x86 instruction set apparatus, for selectively controlling write back of a result, comprising: translation logic, for translating an extended instruction into corresponding micro instructions, wherein said extended instruction comprises: an extended prefix, for disabling write back of the result, the result corresponding to execution of a prescribed operation; an extended prefix tag, for indicating said extended prefix, wherein said extended prefix tag comprises unused opcode F1H (ICE BKPT) and wherein use of said extended prefix tag to indicate said extended prefix continues to allow execution of any other opcode in the x86 instruction set; and a further opcode within said instruction set, for specifying said prescribed operation; and extended execution logic, coupled to said translation logic, for receiving said corresponding micro instructions, and for executing said prescribed operation to generate the result, and for precluding write back of the result; wherein said extended prefix comprises a plurality of bits, and wherein each logic state of said plurality of bits prescribes a subset of a plurality of result conditions, wherein write back of the result is precluded if said subset is true upon generation of the result. translation logic, for translating an extended instruction into corresponding micro instructions, wherein said extended instruction comprises: an extended prefix, for disabling write back of the result, the result corresponding to execution of a prescribed operation; an extended prefix tag, for indicating said extended prefix, wherein said extended prefix tag comprises unused opcode F1H (ICE BKPT) and wherein use of said extended prefix tag to indicate said extended prefix continues to allow execution of any other opcode in the x86 instruction set; and a further opcode within said instruction set, for specifying said prescribed operation; and an extended prefix, for disabling write back of the result, the result corresponding to execution of a prescribed operation; an extended prefix tag, for indicating said extended prefix, wherein said extended prefix tag comprises unused opcode F1H (ICE BKPT) and wherein use of said extended prefix tag to indicate said extended prefix continues to allow execution of any other opcode in the x86 instruction set; and a further opcode within said instruction set, for specifying said prescribed operation; and extended execution logic, coupled to said translation logic, for receiving said corresponding micro instructions, and for executing said prescribed operation to generate the result, and for precluding write back of the result; wherein said extended prefix comprises a plurality of bits, and wherein each logic state of said plurality of bits prescribes a subset of a plurality of result conditions, wherein write back of the result is precluded if said subset is true upon generation of the result.
A strain wave gearing (1, 1B, 1D) comprising: a single rigid internally toothed gear (2, 2B, 2D) comprising internal teeth; a single flexible externally toothed gear (3, 3A, 3B, 3C, 3D) comprising external teeth (35, 37, 38); and a wave generator (4, 4B, 4D) for flexing the externally toothed gear (3, 3A, 3B, 3C, 3D) in a radial direction to form meshing portions (5, 5B, 5D) thereof with the internally toothed gear (2, 2B, 2D) in positions that are separated in a circumferential direction and for moving the meshing portions (5, 5B, 5D) in the circumferential direction; wherein the internally toothed gear (2, 2B, 2D) and the externally toothed gear (3, 3A, 3B, 3C, 3D) are spur gears, or helical gears having a single tooth trace; and the wave generator (4, 4B, 4D) has a ball bearing for supporting the externally toothed gear (3, 3A, 3B, 3C, 3D) from a radially inner side thereof; characterized in that the strain wave gearing further comprises a non-meshing region (6, 6B, 6D) formed in part of each of the meshing portions (5, 5B, 5D) in a tooth trace direction, wherein the non-meshing region (6, 6B, 6D) is defined, in the tooth trace direction, by a portion where no internal teeth of the internally toothed gear (2, 2B, 2D) are formed, or by a portion where no external teeth (35, 37, 38) of the externally toothed gear (3, 3A, 3B, 3C, 3D) are formed; and in that the non-meshing region (6, 6B, 6D) is a region that has a width in the tooth trace direction so as to include a ball center of the ball bearing for supporting the externally toothed gear (3, 3A, 3B, 3C, 3D). a single rigid internally toothed gear (2, 2B, 2D) comprising internal teeth; a single flexible externally toothed gear (3, 3A, 3B, 3C, 3D) comprising external teeth (35, 37, 38); and a wave generator (4, 4B, 4D) for flexing the externally toothed gear (3, 3A, 3B, 3C, 3D) in a radial direction to form meshing portions (5, 5B, 5D) thereof with the internally toothed gear (2, 2B, 2D) in positions that are separated in a circumferential direction and for moving the meshing portions (5, 5B, 5D) in the circumferential direction; wherein the internally toothed gear (2, 2B, 2D) and the externally toothed gear (3, 3A, 3B, 3C, 3D) are spur gears, or helical gears having a single tooth trace; and the wave generator (4, 4B, 4D) has a ball bearing for supporting the externally toothed gear (3, 3A, 3B, 3C, 3D) from a radially inner side thereof; characterized in that the strain wave gearing further comprises a non-meshing region (6, 6B, 6D) formed in part of each of the meshing portions (5, 5B, 5D) in a tooth trace direction, wherein the non-meshing region (6, 6B, 6D) is defined, in the tooth trace direction, by a portion where no internal teeth of the internally toothed gear (2, 2B, 2D) are formed, or by a portion where no external teeth (35, 37, 38) of the externally toothed gear (3, 3A, 3B, 3C, 3D) are formed; and in that the non-meshing region (6, 6B, 6D) is a region that has a width in the tooth trace direction so as to include a ball center of the ball bearing for supporting the externally toothed gear (3, 3A, 3B, 3C, 3D).
A tobacco-flavor-releasing material comprising granules which contain (a) a ground tobacco material, (b) water, (c) a moisturizing agent comprising a polyhydric alcohol, (d) at least one pH-adjusting agent selected from the group consisting of potassium carbonate and sodium hydrogencarbonate, and (e) at least one binder selected from the group consisting of pullulan and hydroxypropyl cellulose. (a) a ground tobacco material, (b) water, (c) a moisturizing agent comprising a polyhydric alcohol, (d) at least one pH-adjusting agent selected from the group consisting of potassium carbonate and sodium hydrogencarbonate, and (e) at least one binder selected from the group consisting of pullulan and hydroxypropyl cellulose.
An electrochemical cell, comprising: a) a container; b) a first electrode disposed in said container, said first electrode contacting said container and defining a cavity therein; c) a separator lining said cavity; and d) a gel free second electrode disposed in said separator lined cavity, characterized in that said second electrode comprising zinc powder having a preassembly tap density greater than 1.6 g/cm 3 and less than 2.2 g/cm 3, a) a container; b) a first electrode disposed in said container, said first electrode contacting said container and defining a cavity therein; c) a separator lining said cavity; and d) a gel free second electrode disposed in said separator lined cavity, characterized in that said second electrode comprising zinc powder having a preassembly tap density greater than 1.6 g/cm 3 and less than 2.2 g/cm 3,
Method for making a printing plate comprising the steps: - selecting a digital image (100, IMG sel) having a contiguous area of image pixels (107, A imgpix) surrounded by a contiguous area of non-image pixels (105, A nonimgpix); - determining a boundary (200, B) of said contiguous area (107, A imgpix); a first border area (207, BA 1) according said boundary (200, B) and within said contiguous area of image pixels (107, A imgpix); and a second border area (205, BA 2) according said boundary (200, B) and within said contiguous area of non-image pixels (105, A nonimgpix); - selecting one or more contiguous clusters (CL sel,1..N) from the first border area (207, BA 1) and adapting the selected digital image (100, IMG sel) by moving minimum one contiguous cluster (CL sel, i) of the one or more selected contiguous clusters (CL sel,1..N) to said second border area (205, BA 2); - imaging the adapted digital image (300, IMG adp) on a plate precursor to form said printing plate. - selecting a digital image (100, IMG sel) having a contiguous area of image pixels (107, A imgpix) surrounded by a contiguous area of non-image pixels (105, A nonimgpix); - determining a boundary (200, B) of said contiguous area (107, A imgpix); a first border area (207, BA 1) according said boundary (200, B) and within said contiguous area of image pixels (107, A imgpix); and a second border area (205, BA 2) according said boundary (200, B) and within said contiguous area of non-image pixels (105, A nonimgpix); - selecting one or more contiguous clusters (CL sel,1..N) from the first border area (207, BA 1) and adapting the selected digital image (100, IMG sel) by moving minimum one contiguous cluster (CL sel, i) of the one or more selected contiguous clusters (CL sel,1..N) to said second border area (205, BA 2); - imaging the adapted digital image (300, IMG adp) on a plate precursor to form said printing plate.