mhurhangee/patent-ind-claim-en huggingface dataset:
A utility assembly comprising at least a first utility module and at least a second utility module , and comprising a coupling mechanism configured for readily detachably attaching the first utility module to the second utility module , the coupling mechanism comprising a male coupler at a face of one of the first utility module and the second utility module , and a female coupler at a face of the other one of the first utility module and the second utility module , said female coupler having a depressed locking location configured with at least one locking rib extending above a depressed surface and along a sliding path, and having an open edge facing in a first sense; said male coupler having a projecting locking location disposed in register with said depressed locking location and configured with at least one locking tongue extending along said engaging sliding path at a second sense, opposite to said first sense, and configured for arresting engagement at a space between said locking rib and depressed surface, the coupling mechanism further comprises at least one locking member for arresting the first utility module with respect to said second utility module and preventing sliding displacement along said sliding path, wherein (i) the female coupler includes two locking ribs that extend at side edges of the depressed locking location and disposed substantially parallel to the sliding path, or (ii) the female coupler comprises two locking ribs each extend at a respective side edge of two neighbouring depressed locking locations , said locking ribs disposed substantially parallel to the sliding path, wherein side walls of the depressed locking location are sloped in order to allow directing of the projecting locking location into the depressed locking location , and characterised in that one or both of (i) a front edge of the projecting locking location and (ii) a corresponding front edge of the depressed locking location are slanted for gliding positioning of the second utility module into locking position over the first utility module .
A cooking appliance comprising: a heating element disposed within a cooking chamber of the cooking appliance and operable to selectively emit waves at any of a plurality of powers and/or peak wavelengths; a camera operable to capture an image of at least a portion of the cooking chamber; and a computing device operable to: supply power (3920; 4004) to the heating element to vary the power and/or peak wavelength of the emitted waves and generate heat within the cooking chamber; characterised in that the computing device is further operable to instruct the camera to capture the image when the heating element is emitting at a stabilized power and/or peak wavelength in an image capture state; and adjust the captured image, at least in part based on a known color temperature and brightness of light emitted from the heating element during the image capture state. a heating element disposed within a cooking chamber of the cooking appliance and operable to selectively emit waves at any of a plurality of powers and/or peak wavelengths; a camera operable to capture an image of at least a portion of the cooking chamber; and a computing device operable to: supply power (3920; 4004) to the heating element to vary the power and/or peak wavelength of the emitted waves and generate heat within the cooking chamber; characterised in that the computing device is further operable to instruct the camera to capture the image when the heating element is emitting at a stabilized power and/or peak wavelength in an image capture state; and adjust the captured image, at least in part based on a known color temperature and brightness of light emitted from the heating element during the image capture state. supply power (3920; 4004) to the heating element to vary the power and/or peak wavelength of the emitted waves and generate heat within the cooking chamber; characterised in that the computing device is further operable to instruct the camera to capture the image when the heating element is emitting at a stabilized power and/or peak wavelength in an image capture state; and adjust the captured image, at least in part based on a known color temperature and brightness of light emitted from the heating element during the image capture state.
A measurement chip for carrying out measurements of emission and/or scattering of light by a fluid sample in an operator unit, wherein the measurement chip has a base plate produced from a transparent polymer material, and wherein there are provided in the base plate at least one measurement cell for receiving a fluid sample and fluid passages for supplying and discharging fluid to and from the measurement cell , characterised in that provided in the base plate outside the measurement cell there is/are (a) mirror surface(s) which is/are so arranged in the base plate that light emitted from and/or scattered by a fluid sample in the measurement cell is always reflected in the polymer material of the base plate and is directed from the measurement chip in the direction of a light detector provided in the operator unit.
An asymmetrical reflective flake having a first side and a second side, for use in a carrier, the asymmetrical reflective flake comprising: a metal reflector layer , wherein a first surface of the metal reflector layer is a concave surface, and a second surface of the metal reflector layer, opposite to the first surface, is a convex surface, for reflecting light; and a coating of a carrier-repellent material supported by the metal reflector layer, wherein the carrier-repellent material is on a first side of the flake, and wherein a second side of the flake is absent the carrier-repellent material, the carrier-repellent material being on the first side of the flake for self-assembling the flake in the carrier so that the flake rests upon the carrier having the first side at least partially out of the carrier and the second side immersed in the carrier a metal reflector layer , wherein a first surface of the metal reflector layer is a concave surface, and a second surface of the metal reflector layer, opposite to the first surface, is a convex surface, for reflecting light; and a coating of a carrier-repellent material supported by the metal reflector layer, wherein the carrier-repellent material is on a first side of the flake, and wherein a second side of the flake is absent the carrier-repellent material, the carrier-repellent material being on the first side of the flake for self-assembling the flake in the carrier so that the flake rests upon the carrier having the first side at least partially out of the carrier and the second side immersed in the carrier
Remote laser processing installation having a laser cell , which is surrounded by a protective enclosure and in which are arranged a working robot (A), with a remote laser tool, a first processing station (B1) in the working region of the working robot (A) and a second processing station (B2) in the working region of the working robot (A), characterized in that also arranged within the protective enclosure is - at least one handling robot (H1, H2), by means of which it is possible to reposition workpieces between the first processing station (B1) or the second processing station (B2) and a buffer region (P1), which serves for the interim storage of already processed or yet to be processed workpieces, - wherein the buffer region (P1) is intended to accommodate workpieces (W) and is integrated, in the form of an automatable actuable workpiece airlock (ZP1), in the protective enclosure . - at least one handling robot (H1, H2), by means of which it is possible to reposition workpieces between the first processing station (B1) or the second processing station (B2) and a buffer region (P1), which serves for the interim storage of already processed or yet to be processed workpieces, - wherein the buffer region (P1) is intended to accommodate workpieces (W) and is integrated, in the form of an automatable actuable workpiece airlock (ZP1), in the protective enclosure .
Rechargeable battery module comprising at least one carrier that can be placed in the interior of a housing of the rechargeable battery module and can be fitted with a plurality of rechargeable battery cells , each rechargeable battery cell in the carrier being electrically contacted on only one side and it being possible to place the or each carrier fitted with rechargeable battery cells in the interior of the housing in a form that thermally couples the free end faces of the rechargeable battery cells to the housing , characterized in that each rechargeable battery cell is individually axially resiliently mounted in the carrier .
A method of injection molding an article, the method comprising: using an injection molding machine that includes a melt source of molten material, a mold defining a mold cavity, a gate in fluid communication with the melt source and the mold cavity, wherein the gate defines an orifice area, and a mold core movable relative to the gate ; directing a first shot of molten material into the mold cavity through a first portion of the orifice area of the gate while simultaneously occluding a second portion of the orifice area of the gate with the mold core ; solidifying the first shot of molten material to form a first part of the article; directing the mold core away from the gate after the first part has been formed; directing a second shot of molten material into the mold cavity through the second portion of the orifice area of the gate while simultaneously occluding the first portion of the orifice area of the gate with the first part of the article; and solidifying the second shot of molten material to form a second part of the article; preferably wherein the molten material is a thermoplastic polymer, a thermosetting polymer, or an elastomer. using an injection molding machine that includes a melt source of molten material, a mold defining a mold cavity, a gate in fluid communication with the melt source and the mold cavity, wherein the gate defines an orifice area, and a mold core movable relative to the gate ; a melt source of molten material, a mold defining a mold cavity, a gate in fluid communication with the melt source and the mold cavity, wherein the gate defines an orifice area, and a mold core movable relative to the gate ; directing a first shot of molten material into the mold cavity through a first portion of the orifice area of the gate while simultaneously occluding a second portion of the orifice area of the gate with the mold core ; solidifying the first shot of molten material to form a first part of the article; directing the mold core away from the gate after the first part has been formed; directing a second shot of molten material into the mold cavity through the second portion of the orifice area of the gate while simultaneously occluding the first portion of the orifice area of the gate with the first part of the article; and solidifying the second shot of molten material to form a second part of the article; preferably wherein the molten material is a thermoplastic polymer, a thermosetting polymer, or an elastomer.
Collector composition for beneficiation of phosphates from phosphate containing ores comprising I. 50 to 90 wt% of at least one component A, II. 1 to 49 wt% of at least one component B, and III. 1 to 49 wt% of at least one component C, wherein the component A is selected from the group consisting of a fatty acid blend with ≥ 90% C 16 to C 18 fatty acids with an unsaturation degree of 0.5 to 3, oleic acid, soybean fatty acids, tall oil, rosins, fatty acid peptides of the formula C n-1 H 2n-1 CO-NH-R with n=12 to 22 and with R being a residue of natural or artificial amino acids comprising glycine, sarcosine or taurine, wherein the component B comprises alkoxylated branched alcohols as non-ionic surfactant which comprise two different types of alkoxy moieties, and wherein the component C comprises sulfur-containing surfactants selected from the group consisting of alkyl sulfates of the formula C n H 2n+1 OSO 3 - with n=12 to 22, alkyl ether sulfates, alkyl sulfonates, alkyl benzenesulfonates, petroleum sulfonates, sulfonated fatty acids, dialkyl sulfosuccinates, di- or tetraalkyl sulfosuccinamates, alkyl ether sulfates and alkyl benzenesulfonates. I. 50 to 90 wt% of at least one component A, II. 1 to 49 wt% of at least one component B, and III. 1 to 49 wt% of at least one component C, wherein the component A is selected from the group consisting of a fatty acid blend with ≥ 90% C 16 to C 18 fatty acids with an unsaturation degree of 0.5 to 3, oleic acid, soybean fatty acids, tall oil, rosins, fatty acid peptides of the formula C n-1 H 2n-1 CO-NH-R with n=12 to 22 and with R being a residue of natural or artificial amino acids comprising glycine, sarcosine or taurine, wherein the component B comprises alkoxylated branched alcohols as non-ionic surfactant which comprise two different types of alkoxy moieties, and wherein the component C comprises sulfur-containing surfactants selected from the group consisting of alkyl sulfates of the formula C n H 2n+1 OSO 3 - with n=12 to 22, alkyl ether sulfates, alkyl sulfonates, alkyl benzenesulfonates, petroleum sulfonates, sulfonated fatty acids, dialkyl sulfosuccinates, di- or tetraalkyl sulfosuccinamates, alkyl ether sulfates and alkyl benzenesulfonates.
A method of generating a luminous fluid sculpture comprising: sculpting the pattern and/or shape of one or more fluids; and energizing the sculpted fluids so that they emit visible light;; and controlling the color of the emitted light; wherein the sculpture is a model of a flower, characterized in that the method comprises providing a generally transparent flower-shaped chamber comprising a pot , a stem , a leaf , and a bloom , wherein the pot is filled with a transparent liquid to represent soil, the method comprising causing the liquid to circulate such that a vortex-shaped depression is formed in the surface of the liquid , maintaining the liquid at a temperature above the autoignition temperature of a first fuel-oxygen /oxidizer mixture, releasing an amount of the first fuel-oxygen/oxidizer mixture into the heated liquid so that small bubbles of the fuel-oxygen /oxidizer mixture ignite and create subsurface flashes of light, releasing an amount of a second fuel onto the vortex-shaped depression so that this second fuel is ignited by the combustion of the bubbles of the first fuel-oxygen /oxidizer mixture at or near the surface of the liquid , creating a flame, applying suction so that the stem flame grows into a tall narrow circulating shape, and so that it reaches the height of the leaf, wherein a portion of the flame is pulled off the central stem flame and into the leaf to fill a space of the leaf, while another portion of the flame continues upward along the stem so that it reaches and fills the bloom . sculpting the pattern and/or shape of one or more fluids; and energizing the sculpted fluids so that they emit visible light;; and controlling the color of the emitted light; wherein the sculpture is a model of a flower, characterized in that the method comprises providing a generally transparent flower-shaped chamber comprising a pot , a stem , a leaf , and a bloom , wherein the pot is filled with a transparent liquid to represent soil, the method comprising causing the liquid to circulate such that a vortex-shaped depression is formed in the surface of the liquid , maintaining the liquid at a temperature above the autoignition temperature of a first fuel-oxygen /oxidizer mixture, releasing an amount of the first fuel-oxygen/oxidizer mixture into the heated liquid so that small bubbles of the fuel-oxygen /oxidizer mixture ignite and create subsurface flashes of light, releasing an amount of a second fuel onto the vortex-shaped depression so that this second fuel is ignited by the combustion of the bubbles of the first fuel-oxygen /oxidizer mixture at or near the surface of the liquid , creating a flame, applying suction so that the stem flame grows into a tall narrow circulating shape, and so that it reaches the height of the leaf, wherein a portion of the flame is pulled off the central stem flame and into the leaf to fill a space of the leaf, while another portion of the flame continues upward along the stem so that it reaches and fills the bloom .
A peptidomimetic macrocycle from 10 to 30 amino acids comprising at least one macrocycle-forming linker and an amino acid sequence chosen from the group consisting of: (i) an amino acid sequence with at least 65%, 70%, 80%, 90%, or 95% sequence identity to a human sequence IRAK2 54-71 (SEQ ID N°1) and 100% identity with the amino acids in the positions 5-6, 9-11, 14-15 or (ii) an amino acid sequence with at least 70%, 80%, 90%, or 95% sequence identity to a human sequence IRAKM 66-83 (SEQ ID N°2) and 100% identity with the amino acids in the positions 5-6, 9-11, 13-14, wherein the peptidomimetic macrocycle comprises an α-helix and at least two natural or non-natural amino acids crosslinked by a macrocycle-forming linker at i and i+3 positions, or i and i+4 positions, or i and i+7 positions, and wherein the percentage of identity is calculated as follows: number of identical positions/total number of overlapping positions x 100. (i) an amino acid sequence with at least 65%, 70%, 80%, 90%, or 95% sequence identity to a human sequence IRAK2 54-71 (SEQ ID N°1) and 100% identity with the amino acids in the positions 5-6, 9-11, 14-15 or (ii) an amino acid sequence with at least 70%, 80%, 90%, or 95% sequence identity to a human sequence IRAKM 66-83 (SEQ ID N°2) and 100% identity with the amino acids in the positions 5-6, 9-11, 13-14, wherein the peptidomimetic macrocycle comprises an α-helix and at least two natural or non-natural amino acids crosslinked by a macrocycle-forming linker at i and i+3 positions, or i and i+4 positions, or i and i+7 positions, and wherein the percentage of identity is calculated as follows: number of identical positions/total number of overlapping positions x 100. wherein the peptidomimetic macrocycle comprises an α-helix and at least two natural or non-natural amino acids crosslinked by a macrocycle-forming linker at i and i+3 positions, or i and i+4 positions, or i and i+7 positions, and wherein the percentage of identity is calculated as follows: number of identical positions/total number of overlapping positions x 100.
A vacuum filtration system comprising: a) a vacuum filtration table comprising a filter support comprising at least one vacuum table tray providing a surface comprising a spacer material providing support for a filtering material and configured to allow drainage; b) the filtering material disposed on the spacer material, the filtering material comprising pores with a median pore size of no more than about 5 microns for filtering a carbonaceous composition comprising graphene oxide, wherein the filtering material is configured to retain the graphene oxide while allowing filtrate to drain; c) at least one spray bar assembly positioned to dispense at least one of the carbonaceous composition comprising the graphene oxide and a wash liquid onto the filtering material, wherein the at least one spray bar assembly is movable horizontally for dispensing the carbonaceous composition over the filtering material; and d) a vacuum source configured to apply negative pressure to the filter support to enhance filtration of the carbonaceous composition comprising the graphene oxide; wherein the at least one vacuum table tray is configured to be removable to allow transfer of the carbonaceous composition comprising the graphene oxide after filtration. a) a vacuum filtration table comprising a filter support comprising at least one vacuum table tray providing a surface comprising a spacer material providing support for a filtering material and configured to allow drainage; b) the filtering material disposed on the spacer material, the filtering material comprising pores with a median pore size of no more than about 5 microns for filtering a carbonaceous composition comprising graphene oxide, wherein the filtering material is configured to retain the graphene oxide while allowing filtrate to drain; c) at least one spray bar assembly positioned to dispense at least one of the carbonaceous composition comprising the graphene oxide and a wash liquid onto the filtering material, wherein the at least one spray bar assembly is movable horizontally for dispensing the carbonaceous composition over the filtering material; and d) a vacuum source configured to apply negative pressure to the filter support to enhance filtration of the carbonaceous composition comprising the graphene oxide; wherein the at least one vacuum table tray is configured to be removable to allow transfer of the carbonaceous composition comprising the graphene oxide after filtration.
A method for operating a terminal device , comprising: receiving a time advance, TA, command from a network device ; determining a TA granularity; and determining a TA value based at least partly on the TA command and the TA granularity, wherein different numerologies are configured for at least two carriers and at least two bandwidth parts, BWPs, wherein the at least two carriers and the at least two BWPs serve the terminal device and the terminal device supports multiple numerologies, wherein each BWP is associated with a numerology and the numerology comprises subcarrier spacing, SCS, and wherein the TA granularity of a Timing Advance Group, TAG, is determined based on a numerology with the largest SCS of the multiple numerologies associated with the at least two BWPs. receiving a time advance, TA, command from a network device ; determining a TA granularity; and determining a TA value based at least partly on the TA command and the TA granularity, wherein different numerologies are configured for at least two carriers and at least two bandwidth parts, BWPs, wherein the at least two carriers and the at least two BWPs serve the terminal device and the terminal device supports multiple numerologies, wherein each BWP is associated with a numerology and the numerology comprises subcarrier spacing, SCS, and wherein the TA granularity of a Timing Advance Group, TAG, is determined based on a numerology with the largest SCS of the multiple numerologies associated with the at least two BWPs.