mhurhangee/patent-ind-claim-en huggingface dataset:
Drain for draining liquid comprising: - a container that includes an upper inlet opening (1.1) that gives access to an interior space (1.2) of the container and a discharge opening (1.3) in fluid communication with the interior space (1.2), and - a mouth with a fixed portion (2.2) configured to be coupled to the upper inlet opening (1.1) of the container , characterized in that the mouth comprises a sleeve-shaped hollow movable portion (2.1) with an outer edge (2.12) through which the movable portion (2.1) defines an elevation (h) of liquid intake to the drain, the movable portion (2.1) is configured to telescopically slide inside the fixed portion (2.2) at an angle of 45° with respect to the elevation (h) of liquid intake to the drain, such that, when the drain is mounted on a wall, the elevation (h) of liquid intake to the drain can be adjusted with respect to a thickness of a floor-covering tile and a position (p) of the outer edge (2.12) of the movable portion (2.1) can be adjusted with respect to a thickness of a wall-covering tile, both adjustments at the same time. - a container that includes an upper inlet opening (1.1) that gives access to an interior space (1.2) of the container and a discharge opening (1.3) in fluid communication with the interior space (1.2), and - a mouth with a fixed portion (2.2) configured to be coupled to the upper inlet opening (1.1) of the container ,
Process for the production of a ceramic sintered shaped body containing 3 mol% Y 2 O 3 -stabilized zirconia (3Y-TZP), which sintered shaped body might contain 0.2 to 20 mass% of α-Al 2 O 3 and/or 2 to 15 mass% of unstabilized zirconia, including the steps of: - dispersion of a submicron powder with a fraction of at least 65 mass% of the Y 2 O 3 -stabilized zirconia in water with the aid of a suitable stabilizer to form a slurry with a solids content of 65 mass% to 70 mass%, - comminution of the dispersed submicron powder by means of grinding media having a diameter of less than or equal to 100 μm to the following particle sizes: - d95 of 0.25 μm to less than 0.42 μm, measured by means of sedimentation analysis, - shaping of the dispersion of the comminuted submicron powder by means of slipcasting in plaster molds to form a body, wherein the green density is more than 60% of the theoretical sintered density without isostatic pressing of the body, and - sintering of the body to form the sintered shaped body. - dispersion of a submicron powder with a fraction of at least 65 mass% of the Y 2 O 3 -stabilized zirconia in water with the aid of a suitable stabilizer to form a slurry with a solids content of 65 mass% to 70 mass%, - comminution of the dispersed submicron powder by means of grinding media having a diameter of less than or equal to 100 μm to the following particle sizes: - d95 of 0.25 μm to less than 0.42 μm, measured by means of sedimentation analysis, - d95 of 0.25 μm to less than 0.42 μm, measured by means of sedimentation analysis, - shaping of the dispersion of the comminuted submicron powder by means of slipcasting in plaster molds to form a body, wherein the green density is more than 60% of the theoretical sintered density without isostatic pressing of the body, and - sintering of the body to form the sintered shaped body.
Light module for a domestic appliance , comprising the following features: a light source ; a light guide ; and a transparent cover plate for covering a surface of the light guide , the light guide being designed to guide light emitted by the light source via the surface of the light guide towards the cover plate and to decouple said light into the cover plate , and the cover plate and/or the light guide having a light guide structure which extends along a main direction of extent of the light guide and is designed to scatter at least a proportion of the light transversely with respect to the main direction of extent of the light guide , the light guide structure having a plurality of ribs extending along the main direction of extent of the light guide and a plurality of depressions connecting the ribs, characterised in that the light guide has an elongate shape which tapers from a first end face of the light guide facing or pointing towards the light source to a second end face of the light guide opposite the first end face . a light source ; a light guide ; and a transparent cover plate for covering a surface of the light guide , the light guide being designed to guide light emitted by the light source via the surface of the light guide towards the cover plate and to decouple said light into the cover plate , and the cover plate and/or the light guide having a light guide structure which extends along a main direction of extent of the light guide and is designed to scatter at least a proportion of the light transversely with respect to the main direction of extent of the light guide , the light guide structure having a plurality of ribs extending along the main direction of extent of the light guide and a plurality of depressions connecting the ribs, characterised in that the light guide has an elongate shape which tapers from a first end face of the light guide facing or pointing towards the light source to a second end face of the light guide opposite the first end face .
Laundry care appliance with a laundry drum for holding laundry, a drum drive for rotating the laundry drum , with a torque detection facility for detecting a torque of the laundry drum and a controller for controlling the drum drive , characterised in that the controller is configured to control the drum drive during a rotation period, in order to rotate the laundry drum at a first rotation speed , if the detected torque is below a torque threshold value , and the controller is configured to control the drum drive during the rotation period, in order to rotate the laundry drum at a second rotation speed, if the detected torque exceeds the torque threshold value , wherein the second rotation speed is slower than the first rotation speed and wherein the controller is configured to control the second rotation speed as a function of the detected torque of the laundry drum , in order to prevent damage to the laundry in the laundry drum .
A subgingival cleaning system comprising: a liquid flow source and a gas flow source each coupled to a nozzle arrangement arranged to be aimed at a subgingival region to be cleaned, the nozzle arrangement comprising at least one nozzle ; and a controller , wherein the controller is configured to operate such that: the liquid flow source is arranged to produce a liquid flow comprising a series of liquid pulses through said nozzle arrangement; the gas flow source is arranged to produce a gas flow through said nozzle arrangement such that each liquid pulse is followed by said gas flow; and the liquid pulses each have a duration of 5-100 ms, and the intervals between sequential liquid pulses each have a duration of 1-50 ms. a liquid flow source and a gas flow source each coupled to a nozzle arrangement arranged to be aimed at a subgingival region to be cleaned, the nozzle arrangement comprising at least one nozzle ; and a controller , wherein the controller is configured to operate such that: the liquid flow source is arranged to produce a liquid flow comprising a series of liquid pulses through said nozzle arrangement; the gas flow source is arranged to produce a gas flow through said nozzle arrangement such that each liquid pulse is followed by said gas flow; and the liquid pulses each have a duration of 5-100 ms, and the intervals between sequential liquid pulses each have a duration of 1-50 ms. the liquid flow source is arranged to produce a liquid flow comprising a series of liquid pulses through said nozzle arrangement; the gas flow source is arranged to produce a gas flow through said nozzle arrangement such that each liquid pulse is followed by said gas flow; and the liquid pulses each have a duration of 5-100 ms, and the intervals between sequential liquid pulses each have a duration of 1-50 ms.
A method of determining heat consumption in one or more rooms (R) forming a respective consumption unit (CUr) being one of at least two sub-metered consumption units (CUr, CU) in a building (B), the at least two sub-metered consumption units (CUr, CU) each comprising at least one heater-mounted heat cost allocator (HCAr, HCA), the method comprising the steps of: aggregating heat values (LHV, HV) corresponding to said heat cost allocators (HCAr, HCA) of said at least two consumption units (CUr, CU) to determine a total heat value (THV) for said building (B); providing a total heat consumption (THC) based on at least one main meter (MM) associated with said building (B); and determining a local heat consumption (LHC) of said respective consumption unit (CUr) based on said total heat consumption (THC), said total heat value (THV) and local heat values (LHV) being heat values (HV) from respective at least one heat cost allocator (HCAr) of said respective consumption unit (CUr); wherein said heat values (LHV, HV) are provided for said step of aggregating via a signal communication system (SCS) comprising said heat cost allocators (HCAr, HCA) as signal nodes (SN) and distributing said heat values (LHV, HV) as signals (SG); wherein said signals (SG; LHV, HV; THC) are distributed in said signal communication system (SCS) by a distribution system (DS) based on signal injection labels (SG-T-4) assigned to the signals (SG) by the signal nodes (SN) and being associated with the transmitting signal node (SN) and signal (SG); said signal nodes (SN) being communicatively coupled to said distribution system (DS), and said signal injection labels (SG-T-4) being handles of said signals (SG) and not comprising references to recipients, so that the distribution of said signals via the signal communication system (SCS) is based on the sender and/or the content, not on the destination; and wherein the method comprises a step of said distribution system (DS) determining which one or more recipient client nodes (CN) to distribute said heat values (LHV, HV) to, based on said signal injection label (SG-T-4) and a distribution system switching control register (DS-T-45) of said distribution system (DS). aggregating heat values (LHV, HV) corresponding to said heat cost allocators (HCAr, HCA) of said at least two consumption units (CUr, CU) to determine a total heat value (THV) for said building (B); providing a total heat consumption (THC) based on at least one main meter (MM) associated with said building (B); and determining a local heat consumption (LHC) of said respective consumption unit (CUr) based on said total heat consumption (THC), said total heat value (THV) and local heat values (LHV) being heat values (HV) from respective at least one heat cost allocator (HCAr) of said respective consumption unit (CUr);
A sole structure for an article of footwear comprising: a sole plate including a midfoot region and at least one of a forefoot region and a heel region ; wherein the sole plate has an undulating profile (P1) at a transverse cross-section of the sole plate , the undulating profile (P1) including multiple waves (W1, W2, W3, W4, W5, W6, W7, W8) each having a crest (C1, C2, C3, C4, C5, C6, C7, C8) and a trough (T1, T2, T3, T4, T5, T6, T7, T8), and the sole plate has ridges (R1, R2, R3, R4, R5, R6, R7, R8) corresponding with the crest and the trough of each wave and extending longitudinally throughout the midfoot region and the at least one of a forefoot region and a heel region , wherein: the multiple waves include at least two waves (W1, W2) disposed between a longitudinal midline and a medial extremity of the sole plate , and at least two waves (W6, W7) disposed between the longitudinal midline and a lateral extremity of the sole plate ; and the at least two waves (W1, W2) disposed between the longitudinal midline and the medial extremity have a shorter average wavelength than the at least two waves (W6, W7) disposed between the longitudinal midline and the lateral extremity , and wherein the wavelengths increase in magnitude in order from the medial extremity to the lateral extremity . a sole plate including a midfoot region and at least one of a forefoot region and a heel region ; wherein the sole plate has an undulating profile (P1) at a transverse cross-section of the sole plate , the undulating profile (P1) including multiple waves (W1, W2, W3, W4, W5, W6, W7, W8) each having a crest (C1, C2, C3, C4, C5, C6, C7, C8) and a trough (T1, T2, T3, T4, T5, T6, T7, T8), and the sole plate has ridges (R1, R2, R3, R4, R5, R6, R7, R8) corresponding with the crest and the trough of each wave and extending longitudinally throughout the midfoot region and the at least one of a forefoot region and a heel region , wherein: the multiple waves include at least two waves (W1, W2) disposed between a longitudinal midline and a medial extremity of the sole plate , and at least two waves (W6, W7) disposed between the longitudinal midline and a lateral extremity of the sole plate ; and the at least two waves (W1, W2) disposed between the longitudinal midline and the medial extremity have a shorter average wavelength than the at least two waves (W6, W7) disposed between the longitudinal midline and the lateral extremity , and wherein the wavelengths increase in magnitude in order from the medial extremity to the lateral extremity . the multiple waves include at least two waves (W1, W2) disposed between a longitudinal midline and a medial extremity of the sole plate , and at least two waves (W6, W7) disposed between the longitudinal midline and a lateral extremity of the sole plate ; and the at least two waves (W1, W2) disposed between the longitudinal midline and the medial extremity have a shorter average wavelength than the at least two waves (W6, W7) disposed between the longitudinal midline and the lateral extremity , and wherein the wavelengths increase in magnitude in order from the medial extremity to the lateral extremity .
-5,10-methylene-tetrahydrofolate for use in the treatment in a human of solid tumors, including cancer, which treatment comprises the following steps: a) On Day 1, administering an IV bolus containing 10-1000 mg/m2 (of BSA) of a fluorinated pyrimidine base such as 5-fluorouracil (5-FU), followed, either simultaneously or after a period of 10 min - 4 hours, by b) administering one or more IV boluses, each containing 5 - 1000 mg/m 2 -5,10-methylenetetrahydrofolate, followed by c) optionally administering one IV bolus containing 5 - 1000 mg/m 2 (of BSA) -5,10-methylene-tetrahydrofolate before the end of Day 1, followed by d) On Day 2, administering an IV bolus containing 10-1000 mg/m2 (of BSA) of a fluorinated pyrimidine base such as 5-FU, followed, either simultaneously or after a period of 10 min - 4 hours, by e) optionally administering one or more IV boluses each containing 5 - 1000 mg/m 2 (of BSA) -5,10-methylene-tetrahydrofolate, wherein step b) is optionally repeated up to 4 times on Day 1 with an interval of 10 min - 60 min between each bolus being administered, and wherein step e) is optionally repeated up to 4 times on Day 2 with an interval of between 10 min - 60 min between each bolus being administered, and wherein all steps a) - e) are optionally repeated every 2 weeks for up to eight cycles, i.e. up to sixteen weeks. a) On Day 1, administering an IV bolus containing 10-1000 mg/m2 (of BSA) of a fluorinated pyrimidine base such as 5-fluorouracil (5-FU), followed, either simultaneously or after a period of 10 min - 4 hours, by b) administering one or more IV boluses, each containing 5 - 1000 mg/m 2 -5,10-methylenetetrahydrofolate, followed by c) optionally administering one IV bolus containing 5 - 1000 mg/m 2 (of BSA) -5,10-methylene-tetrahydrofolate before the end of Day 1, followed by d) On Day 2, administering an IV bolus containing 10-1000 mg/m2 (of BSA) of a fluorinated pyrimidine base such as 5-FU, followed, either simultaneously or after a period of 10 min - 4 hours, by e) optionally administering one or more IV boluses each containing 5 - 1000 mg/m 2 (of BSA) -5,10-methylene-tetrahydrofolate,
An integrated-type carbon dioxide generator comprising an upper container accommodating an acid or aqueous solution thereof and including an carbon dioxide outlet pipe through which carbon dioxide gas is discharged, wherein the upper container is communicatively connected to the outside through the carbon dioxide outlet pipe; a lower container located under the upper container and accommodating a base containing a salt of carbonic acid or a aqueous solution thereof; a dropping hole area formed in a bottom surface of the upper container such that the acid or aqueous solution thereof is supplied from the upper container to the lower container by gravity; a speed control valve that is externally manipulable and configured to open and close the dropping hole area; and a pressure equilibrium and gas passage pipe configured to form a path through which carbon dioxide generated in the lower container is transferred to the upper container, wherein one end of a bottom surface of the pressure equilibrium and gas passage pipe in a vertical direction is formed in an upper area of the lower container such that only carbon dioxide and gases are able to move through the pressure equilibrium and gas passage pipe, and another end of an upper surface of the pressure equilibrium and gas passage pipe is located in an upper area of the upper container so as to form a vertical-type passage in which the upper container and the lower container are connected to each other. an upper container accommodating an acid or aqueous solution thereof and including an carbon dioxide outlet pipe through which carbon dioxide gas is discharged, wherein the upper container is communicatively connected to the outside through the carbon dioxide outlet pipe; a lower container located under the upper container and accommodating a base containing a salt of carbonic acid or a aqueous solution thereof; a dropping hole area formed in a bottom surface of the upper container such that the acid or aqueous solution thereof is supplied from the upper container to the lower container by gravity; a speed control valve that is externally manipulable and configured to open and close the dropping hole area; and a pressure equilibrium and gas passage pipe configured to form a path through which carbon dioxide generated in the lower container is transferred to the upper container, wherein one end of a bottom surface of the pressure equilibrium and gas passage pipe in a vertical direction is formed in an upper area of the lower container such that only carbon dioxide and gases are able to move through the pressure equilibrium and gas passage pipe, and another end of an upper surface of the pressure equilibrium and gas passage pipe is located in an upper area of the upper container so as to form a vertical-type passage in which the upper container and the lower container are connected to each other.
A surface profile measuring apparatus (LMS) comprising: a measuring head including a distance detector and an angle detector , the distance detector configured to detect a distance to a surface under measurement (Ws) of an object under measurement (W, W 1 , W 2 ) using a first probe light beam (PL1), the angle detector configured to detect an angle of the surface under measurement (Ws) using a second probe light beam (PL2); an applied position moving mechanism configured to move applied positions of the first probe light beam (PL1) and the second probe light beam (PL2) on the surface under measurement (Ws); and a controller configured to derive a profile of the surface under measurement (Ws) based on the applied positions of the first and second probe light beams (PL1, PL2), the distance to the surface under measurement (Ws) detected by the distance detector and the angle of the surface under measurement (Ws) detected by the angle detector , wherein the surface profile measuring apparatus is configured such that the first probe light beam (PL1) is obliquely incident on the surface under measurement (Ws) at a predetermined angle of incidence (θ 1 ) with respect to the surface under measurement (Ws), and the controller is configured to correct the angle of the surface under measurement (Ws) detected by the angle detector using the distance to the surface under measurement (Ws) detected by the distance detector . a measuring head including a distance detector and an angle detector , the distance detector configured to detect a distance to a surface under measurement (Ws) of an object under measurement (W, W 1 , W 2 ) using a first probe light beam (PL1), the angle detector configured to detect an angle of the surface under measurement (Ws) using a second probe light beam (PL2); an applied position moving mechanism configured to move applied positions of the first probe light beam (PL1) and the second probe light beam (PL2) on the surface under measurement (Ws); and a controller configured to derive a profile of the surface under measurement (Ws) based on the applied positions of the first and second probe light beams (PL1, PL2), the distance to the surface under measurement (Ws) detected by the distance detector and the angle of the surface under measurement (Ws) detected by the angle detector , wherein the surface profile measuring apparatus is configured such that the first probe light beam (PL1) is obliquely incident on the surface under measurement (Ws) at a predetermined angle of incidence (θ 1 ) with respect to the surface under measurement (Ws), and the controller is configured to correct the angle of the surface under measurement (Ws) detected by the angle detector using the distance to the surface under measurement (Ws) detected by the distance detector .
Cooling fan module , comprising: a fan shroud ; a fan wheel recess formed in the fan shroud , wherein the fan wheel recess is delimited by a shroud ring ; a motor holder , which is arranged inside the fan wheel recess and which is mechanically connected to the fan shroud via struts ; a motor , which is at least partially held in the motor holder ; and a fan wheel , which is arranged in the fan wheel recess and which is rotationally driven by the motor , wherein the cooling fan module comprises a separately formed, ring-shaped structural element , which is arranged on the shroud ring , wherein a gap (S) is formed between the fan wheel and the shroud ring in the radial direction, wherein the ring-shaped structural element is arranged at least partially within said gap (S), characterized in that the ring-shaped structural element further comprises a holding means , which is provided for guiding a hose-like and/or tube-like structure and/or which delimits the hose-like and/or tube-like structure at least two degrees of freedom. a fan shroud ; a fan wheel recess formed in the fan shroud , wherein the fan wheel recess is delimited by a shroud ring ; a motor holder , which is arranged inside the fan wheel recess and which is mechanically connected to the fan shroud via struts ; a motor , which is at least partially held in the motor holder ; and a fan wheel , which is arranged in the fan wheel recess and which is rotationally driven by the motor , wherein the cooling fan module comprises a separately formed, ring-shaped structural element , which is arranged on the shroud ring , wherein a gap (S) is formed between the fan wheel and the shroud ring in the radial direction, wherein the ring-shaped structural element is arranged at least partially within said gap (S), characterized in that the ring-shaped structural element further comprises a holding means , which is provided for guiding a hose-like and/or tube-like structure and/or which delimits the hose-like and/or tube-like structure at least two degrees of freedom.