mhurhangee/ep-ind-claims huggingface dataset:
Divider system for a drawer, having an interior-wall element (12a-12i, 14, 14a, 14b, 15, 15a, 15b, 44, 61a-61d) and having a connecting member (16, 16a-16d), for connecting two of the interior-wall elements (12a-12i, 14, 14a, 14b, 15, 15a, 15b, 44, 61a-61d), and being intended for arranging in an interior space (19, 52) of a drawer, wherein the interior-wall element (12a-12i, 14, 14a, 14b, 15, 15a, 15b, 44, 61a-61d) is designed in the form of a hollow profile, wherein the hollow profile has two large side walls, wherein the two large side walls are located opposite one another in the hollow profile, wherein one of the two large side walls comprises a large side surface (22, 36, 45), wherein the hollow profile comprises two narrow side walls, wherein the two narrow side walls are located opposite one another, wherein one of the two narrow side walls comprises a narrow side surface (21, 58), wherein the large side walls and the narrow side walls form exterior walls of the hollow profile and extend along a longitudinal extent of the hollow profile, wherein the two narrow side surfaces and the two large side surfaces surround an open side (50a, 50b) of the hollow profile, wherein on the open side (50a, 50b) of the hollow profile, along an edge region (49a, 49b) of the open side (50a, 50b), the large side surface (22, 36, 45) of the hollow profile has a recess (48a-48d), wherein, the narrow side surface (21, 58) projects beyond the recess (48a-48d), as seen along a longitudinal extent of the hollow profile, characterized in that, along the edge region (49a, 49b), the interior-wall element (12a-12i, 14, 14a, 14b, 15, 15a, 15b, 44, 61a-61d) is configured such that the interior-wall element (12a-12i, 14, 14a, 14b, 15, 15a, 15b, 44, 61a-61d) can be connected to a further interior-wall element (12a-12i, 14, 14a, 14b, 15, 15a, 15b, 44, 61a-61d) configured in the same manner on the edge region (49a, 49b) with form-fitting placement along the edge region (49a, 49b), in two different positions, and in that the connecting member (16, 16a-16d) has a step (27, 40) along an outer surface and is designed such that it can be arranged so as to engage in a recess (48a-48d) of at least one of the interior-wall elements (12a-12i, 14, 14a, 14b, 15, 15a, 15b, 44, 61a-61d) of the divider system.
A lighting module comprising: a low colour temperature white light and a high colour temperature white light each arranged to emit light into a mixing optic configured to mix light emitted from the low colour temperature white light and the high colour temperature white light; a lens arranged to distribute mixed light emitted from the mixing optic; and a body comprising an aperture arranged to crop the distributed mixed light emitted from the lens. wherein the mixing optic is substantially S shaped and comprises two arcs having an equal and opposite curvature. a low colour temperature white light and a high colour temperature white light each arranged to emit light into a mixing optic configured to mix light emitted from the low colour temperature white light and the high colour temperature white light; a lens arranged to distribute mixed light emitted from the mixing optic; and a body comprising an aperture arranged to crop the distributed mixed light emitted from the lens. wherein the mixing optic is substantially S shaped and comprises two arcs having an equal and opposite curvature.
Nutraceutical or pharmaceutical composition comprising: a) a lipid fraction comprising at least one of docosahexaenoic acid, docosapentaenoic acid and eicosapentaenoic acid; b) a protein fraction comprising proteinaceous material from non-human origin which provide at least cysteine and/or taurine; c) a mineral fraction comprising at least one of manganese and molybdenum; d) a uracil source providing more than 25 mol% of the total nucleobase sources and wherein the molar ratio [CMP+UMP] to [AMP+GMP+TMP+IMP] is more than 1.45. a) a lipid fraction comprising at least one of docosahexaenoic acid, docosapentaenoic acid and eicosapentaenoic acid; b) a protein fraction comprising proteinaceous material from non-human origin which provide at least cysteine and/or taurine; c) a mineral fraction comprising at least one of manganese and molybdenum; d) a uracil source providing more than 25 mol% of the total nucleobase sources and wherein the molar ratio [CMP+UMP] to [AMP+GMP+TMP+IMP] is more than 1.45.
An aqueous pretreatment formulation comprising - at least one metal salt, - a polymeric mixture of polymers, copolymers, or both, - an ammonium salt, - an epichlorohydrin-modified polyamide, and optionally at least one polycarbodiimide, wherein the formulation is free of a dye or a pigment, an organic acid, an organic base, an organic starch, a starch salt, an isocyanate-based material, borates and borate salts. - at least one metal salt, - a polymeric mixture of polymers, copolymers, or both, - an ammonium salt, - an epichlorohydrin-modified polyamide, and optionally at least one polycarbodiimide, wherein the formulation is free of a dye or a pigment, an organic acid, an organic base, an organic starch, a starch salt, an isocyanate-based material, borates and borate salts.
A cooler comprising at least one cooler compartment, at least one special compartment provided in the cooler compartment maintained at a temperature lower than the cooler compartment, at least one compressor enabling circulating a refrigerant fluid by compressing it, at least one evaporator enabling the cooler compartment to be cooled, at least one fan enabling air circulation in the cooler compartment, at least one first heat sensor measuring the temperature in the cooler compartment and at least one second heat sensor measuring the temperature in the special compartment, at least one control unit configured to determine the times at which the fan is turned on and off at least during the operating or halted durations of the compressor, by controlling the data received at least from the first heat sensor and the second heat sensor characterized by the control unit configured to not turn the fan on until the cooler compartment temperature (T FF) reaches an upper limit temperature (T FF-ul) or until the special compartment temperature (T ZD) reaches a lower limit temperature (T ZD-ll), and to turn the fan on upon the cooler compartment temperature (T FF) reaching said upper limit temperature (T FF-ul) or upon the special compartment temperature (T ZD) reaching said lower limit temperature (T ZD-ll), during the halted duration of the compressor.
A box for carrying a quantity of loose objects, said box comprising: a. walls (101, 102, 103, 104, 105, 106) enclosing a chamber for carrying said quantity of loose objects; and b. a flap defined in a first wall of said box, said flap being hingedly attached to said first wall of along an attachment line such that said flap is pivotable into said chamber of said box along said attachment line and towards a second wall coupled to an edge of said first wall at an angle, said flap having a breadth in a first direction and a height in a second direction substantially perpendicular to said breadth and extending from said attachment line to a free end of said flap; wherein: c. said attachment line is spaced apart from and runs along the direction of said edge of said first wall to which said second wall is coupled; d. said height of said flap is greater than a distance between said attachment line and said edge of said first wall to which said second wall is coupled. a. walls (101, 102, 103, 104, 105, 106) enclosing a chamber for carrying said quantity of loose objects; and b. a flap defined in a first wall of said box, said flap being hingedly attached to said first wall of along an attachment line such that said flap is pivotable into said chamber of said box along said attachment line and towards a second wall coupled to an edge of said first wall at an angle, said flap having a breadth in a first direction and a height in a second direction substantially perpendicular to said breadth and extending from said attachment line to a free end of said flap; wherein: c. said attachment line is spaced apart from and runs along the direction of said edge of said first wall to which said second wall is coupled; d. said height of said flap is greater than a distance between said attachment line and said edge of said first wall to which said second wall is coupled. c. said attachment line is spaced apart from and runs along the direction of said edge of said first wall to which said second wall is coupled; d. said height of said flap is greater than a distance between said attachment line and said edge of said first wall to which said second wall is coupled.
An electrochromic window comprising an electrochromic device, the electrochromic device comprising a substrate; and an electrochromic device coating disposed on the substrate, the electrochromic device coating comprising: first and second transparent conductors (310, 330), wherein at least one of the first and second transparent conductors is a multi-layered conductor; and an electrochromic stack between the first and second transparent conductors (310, 330); wherein the multi-layer conductor comprises a metal layer sandwiched between a first non-metal layer and a second non-metal layer such that the metal layer does not contact the electrochromic stack, wherein the first non-metal layer is a transparent conductive oxide layer, and wherein the second non-metal layer is a transparent conductive oxide layer or a defect mitigating insulating layer, characterised in that the multi-layer conductor further comprises a third non-metal layer located between the first non-metal layer and the metal layer, and the third non-metal layer is a defect mitigating insulating layer. a substrate; and an electrochromic device coating disposed on the substrate, the electrochromic device coating comprising: first and second transparent conductors (310, 330), wherein at least one of the first and second transparent conductors is a multi-layered conductor; and an electrochromic stack between the first and second transparent conductors (310, 330); wherein the multi-layer conductor comprises a metal layer sandwiched between a first non-metal layer and a second non-metal layer such that the metal layer does not contact the electrochromic stack, wherein the first non-metal layer is a transparent conductive oxide layer, and wherein the second non-metal layer is a transparent conductive oxide layer or a defect mitigating insulating layer, characterised in that the multi-layer conductor further comprises a third non-metal layer located between the first non-metal layer and the metal layer, and the third non-metal layer is a defect mitigating insulating layer. first and second transparent conductors (310, 330), wherein at least one of the first and second transparent conductors is a multi-layered conductor; and an electrochromic stack between the first and second transparent conductors (310, 330); wherein the multi-layer conductor comprises a metal layer sandwiched between a first non-metal layer and a second non-metal layer such that the metal layer does not contact the electrochromic stack, wherein the first non-metal layer is a transparent conductive oxide layer, and wherein the second non-metal layer is a transparent conductive oxide layer or a defect mitigating insulating layer, characterised in that the multi-layer conductor further comprises a third non-metal layer located between the first non-metal layer and the metal layer, and the third non-metal layer is a defect mitigating insulating layer.
A method of dicing a wafer of light emitting devices, the wafer comprising: a transparent layer; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric; and a wavelength converting layer disposed between the transparent layer and the light emitting device layer; the method comprising: cutting a first portion of a thickness of the wafer in a first cutting process; and cutting the remaining thickness of the wafer in a second cutting process; wherein only one of the first cutting process and the second cutting process comprises using an ablation laser to cut the dielectric between the light emitting devices and the remaining cutting process comprises either mechanical sawing with a wide, resin-bonded diamond grit blade or using sub-surface laser scribing and die break singulation. a transparent layer; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric; and a wavelength converting layer disposed between the transparent layer and the light emitting device layer; the method comprising: cutting a first portion of a thickness of the wafer in a first cutting process; and cutting the remaining thickness of the wafer in a second cutting process; wherein only one of the first cutting process and the second cutting process comprises using an ablation laser to cut the dielectric between the light emitting devices and the remaining cutting process comprises either mechanical sawing with a wide, resin-bonded diamond grit blade or using sub-surface laser scribing and die break singulation. cutting a first portion of a thickness of the wafer in a first cutting process; and cutting the remaining thickness of the wafer in a second cutting process; wherein only one of the first cutting process and the second cutting process comprises using an ablation laser to cut the dielectric between the light emitting devices and the remaining cutting process comprises either mechanical sawing with a wide, resin-bonded diamond grit blade or using sub-surface laser scribing and die break singulation.
A process for producing an aqueous polymer dispersion by free-radically initiated aqueous emulsion polymerization, which comprises free-radically polymerizing, in an aqueous medium, in the presence of at least one polymer 1, ≤ 5.0% by weight of at least one α,β-monoethylenically unsaturated C 3 to C 6 mono- or dicarboxylic acid (monomers A2), ≥ 95% and ≤ 100% by weight of at least one ethylenically unsaturated compound other than the monomers A2 (monomers B2), where the amounts of monomers A2 and B2 add up to 100% by weight, with the proviso that • the nature and amounts of monomers A2 and B2 are chosen such that the polymer 2 obtained therefrom has a Hansch parameter ≥ 2.80 and a glass transition temperature ≥ 20°C, • the at least one polymer 1 comprises, in copolymerized form, ≥ 3.0% and ≤ 35% by weight of at least one α,β-monoethylenically unsaturated C 3 to C 6 mono- or dicarboxylic acid (monomers A1), and ≥ 65% and ≤ 97.0% by weight of at least one ethylenically unsaturated compound other than the monomers A1 (monomers B1), where the amounts of monomers A1 and B1 add up to 100% by weight, • the nature and amounts of monomers A1 and B1 have been chosen here such that the at least one polymer 1 has a Hansch parameter > 1.35, and • the weight ratio of the at least one polymer 1 to the sum of the total amounts of monomers A2 and B2 (total amount of monomers 2) is in the range of 15:85 to 60:40. ≤ 5.0% by weight of at least one α,β-monoethylenically unsaturated C 3 to C 6 mono- or dicarboxylic acid (monomers A2), ≥ 95% and ≤ 100% by weight of at least one ethylenically unsaturated compound other than the monomers A2 (monomers B2), where the amounts of monomers A2 and B2 add up to 100% by weight, with the proviso that • the nature and amounts of monomers A2 and B2 are chosen such that the polymer 2 obtained therefrom has a Hansch parameter ≥ 2.80 and a glass transition temperature ≥ 20°C, • the at least one polymer 1 comprises, in copolymerized form, • the nature and amounts of monomers A2 and B2 are chosen such that the polymer 2 obtained therefrom has a Hansch parameter ≥ 2.80 and a glass transition temperature ≥ 20°C, • the at least one polymer 1 comprises, in copolymerized form, ≥ 3.0% and ≤ 35% by weight of at least one α,β-monoethylenically unsaturated C 3 to C 6 mono- or dicarboxylic acid (monomers A1), and ≥ 65% and ≤ 97.0% by weight of at least one ethylenically unsaturated compound other than the monomers A1 (monomers B1), where the amounts of monomers A1 and B1 add up to 100% by weight, • the nature and amounts of monomers A1 and B1 have been chosen here such that the at least one polymer 1 has a Hansch parameter > 1.35, and • the weight ratio of the at least one polymer 1 to the sum of the total amounts of monomers A2 and B2 (total amount of monomers 2) is in the range of 15:85 to 60:40. • the nature and amounts of monomers A1 and B1 have been chosen here such that the at least one polymer 1 has a Hansch parameter > 1.35, and • the weight ratio of the at least one polymer 1 to the sum of the total amounts of monomers A2 and B2 (total amount of monomers 2) is in the range of 15:85 to 60:40.
Passenger seat for a transport vehicle, in particular a railway transport vehicle, comprising a structural frame, a seat portion and a backrest articulated on the seat portion, the seat portion and the backrest being guided by the structural frame, the backrest comprising at least one lower part and one upper part, means for articulating the backrest adapted to modify the angle (α) formed between the lower part and the upper part of the backrest according to the position of the seat portion in the frame, a lumbar support mounted on the lower part of the backrest, and a device for adjusting the depth of the lumbar support, characterised in that the device for adjusting the depth of the lumbar support is configured to automatically control the depth of the lumbar support according to the angle (α) formed between the lower part and the upper part of the backrest.
A composition comprising: a detergent composition comprising a quaternary ammonium salt detergent; and a metal-containing fuel catalyst which is in the form of a colloidal dispersion, comprising: an organic phase; particles of an iron compound in its amorphous form; and at least one amphiphilic agent. a detergent composition comprising a quaternary ammonium salt detergent; and a metal-containing fuel catalyst which is in the form of a colloidal dispersion, comprising: an organic phase; particles of an iron compound in its amorphous form; and at least one amphiphilic agent.
A salt which is 4-[3-(cyanomethyl)-3-(3',5'-dimethyl-1H,1'H-4,4'-bipyrazol-1-yl)azetidin-1-yl]-2,5-difluoro-N-[ -2,2,2-trifluoro-1-methylethyl]benzamide phosphate (Compound 1 phosphate) having the formula:
A method comprising: receiving (208, 308), by an electronic device, configuration information relating to network connectivity with a network of a vehicle, the configuration information including a credential, the electronic device being an enrollee device, wherein an enrollee device is a device which has not been configured by a configurator device yet; establishing (212, 312), by the electronic device using the configuration information, a connection with the network of the vehicle to access a service; and revoking (218, 318), at the electronic device, the credential in response to a termination of the access of the service, wherein revoking (218, 318) the credential comprises: establishing, using a configuration key, another connection between the electronic device and the configurator device (200, 300), the another connection different from the network of the vehicle; and receiving revocation information from the configurator device (200, 300) via the another connection, the revocation information for revoking the credential. receiving (208, 308), by an electronic device, configuration information relating to network connectivity with a network of a vehicle, the configuration information including a credential, the electronic device being an enrollee device, wherein an enrollee device is a device which has not been configured by a configurator device yet; establishing (212, 312), by the electronic device using the configuration information, a connection with the network of the vehicle to access a service; and revoking (218, 318), at the electronic device, the credential in response to a termination of the access of the service, wherein revoking (218, 318) the credential comprises: establishing, using a configuration key, another connection between the electronic device and the configurator device (200, 300), the another connection different from the network of the vehicle; and receiving revocation information from the configurator device (200, 300) via the another connection, the revocation information for revoking the credential. establishing, using a configuration key, another connection between the electronic device and the configurator device (200, 300), the another connection different from the network of the vehicle; and receiving revocation information from the configurator device (200, 300) via the another connection, the revocation information for revoking the credential.
A disconnector for distribution transformers with dielectric liquid comprising current-limiting fuses located in the transformer tank which are electrically connected with an external phase power supply and through fixed contacts of the main contact and moving contacts of the main contact of the disconnector with the active part of the transformer comprising the primary circuit and the secondary circuit of the transformer, the current-limiting fuses being located in a common casing of the disconnector which houses a slide with a pilot, which slide is coupled with a fixing disc by means of springs, characterized in that the disconnector is furnished with an additional auxiliary contact being a kind of a limit switch controlled by a roll which is fixed to the fixing disc, and having a cam cooperating with the roll, which is fastened to the slide, said auxiliary contact is electrically connected with a switch connected to the active part of the transformer on the low voltage side of the transformer.
Electric direct current motor, in particular of small dimensions, having a shaft, a winding support in the form of a printed circuit board as a bearing component designed with at least one layer, a collector, and an air-cored outer rotor winding with several winding terminations, wherein the circuit board is connected with the shaft via a metal hub, wherein the outer rotor winding is connected at one end to the shaft via the printed circuit board in a torque-proof manner, and wherein the outer rotor winding is electrically connected to the collector, characterized in that the collector has several collector wires, wherein the circuit board is made of glass-fiber reinforced thermosetting plastics, wherein the metal hub is connected to the shaft by frictional and material bonding connections, wherein the metal hub is pressed onto the shaft and welded to the shaft.