mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining at least one geometrical characteristic of a tank arrangement for a ship, the tank arrangement comprising a number of tanks having tank walls comprising wall plates , the method comprising a step of: (a) defining the number of tanks or tank wall plates ; and characterized by further comprising a step of: (b) determining the geometrical characteristic based upon said defined number of tanks or tank wall plates by: evaluating any one or more of the equations: L = Vx 2 2 ⁢ y 1 / 3 ; B = Vy 2 2 ⁢ x 1 / 3 ; and D = 4 ⁢ V xy 1 / 3 ; or computer-implementing said equations; or using a result obtained from evaluating any one of said equations or from said computer implementation; wherein L is an overall length of the tank arrangement , B is an overall breadth of the tank arrangement , D is an overall depth of the tank arrangement, V is an overall volume of the tank arrangement , x is the number of tank wall plates in a first horizontal direction and y is the number of tank wall plates in a second horizontal direction which is orthogonal to the first horizontal direction. (a) defining the number of tanks or tank wall plates ; evaluating any one or more of the equations: L = Vx 2 2 ⁢ y 1 / 3 ; B = Vy 2 2 ⁢ x 1 / 3 ; and D = 4 ⁢ V xy 1 / 3 ; or computer-implementing said equations; or using a result obtained from evaluating any one of said equations or from said computer implementation; wherein L is an overall length of the tank arrangement , B is an overall breadth of the tank arrangement , D is an overall depth of the tank arrangement, V is an overall volume of the tank arrangement , x is the number of tank wall plates in a first horizontal direction and y is the number of tank wall plates in a second horizontal direction which is orthogonal to the first horizontal direction.
Aircraft , comprising a fuselage containing a passenger cabin and/or a cargo space and an aircraft tank for storing cryogenic H2, wherein the aircraft tank is configured as non-circular dorsal tank arranged on the top of the fuselage and comprises an inner skin defining an inner tank volume and a secondary outer skin enclosing the inner skin and defining a thermal insulation chamber between the inner and outer skins , wherein the outer skin of the aircraft tank has aerodynamical smooth transitions to the outer skin of the fuselage .
A skin treatment personal care device comprising: a handle having a gripping portion at one end and a head portion at an opposing end, the head portion includes a heat dissipating housing defining a pocket and having a top surface , the heat dissipating housing comprising a material having a thermal diffusivity greater than 10 W / m K; a light emitting diode positioned within the pocket adapted to provide one or more skin benefits; and a window forming a water tight seal covering the light emitting diode, characterized in that the skin treatment personal care device further comprises a shaving razor cartridge mounted to the heat dissipating housing . a handle having a gripping portion at one end and a head portion at an opposing end, the head portion includes a heat dissipating housing defining a pocket and having a top surface , the heat dissipating housing comprising a material having a thermal diffusivity greater than 10 W / m K; a light emitting diode positioned within the pocket adapted to provide one or more skin benefits; and a window forming a water tight seal covering the light emitting diode, characterized in that the skin treatment personal care device further comprises a shaving razor cartridge mounted to the heat dissipating housing .
A method of determining a material property of an object, the method comprising: obtaining (S301) a real light intensity value for each of a first number of light source positions and each of a second number of light sensor positions, the real light intensity value indicating an intensity of light from the light source position that is reflected or diffused by an object to the light sensor position; determining (S701) a three-dimensional surface of the object; and for each of a plurality of points on the three-dimensional surface of the object, using a model that has been trained by machine learning, predicting (S702) the material property for the object at the point based on the obtained real light intensity values, wherein the material property comprises one or more of: specular reflection; roughness; diffuse light emission; sub-surface scattering; transparency; and index of refraction, and wherein the model is a neural network configured to receive light intensity values, and their associated light source positions and light sensor positions, as an input layer, and to produce a representation of the material property, as an output layer. obtaining (S301) a real light intensity value for each of a first number of light source positions and each of a second number of light sensor positions, the real light intensity value indicating an intensity of light from the light source position that is reflected or diffused by an object to the light sensor position; determining (S701) a three-dimensional surface of the object; and for each of a plurality of points on the three-dimensional surface of the object, using a model that has been trained by machine learning, predicting (S702) the material property for the object at the point based on the obtained real light intensity values, wherein the material property comprises one or more of: specular reflection; roughness; diffuse light emission; sub-surface scattering; transparency; and index of refraction, and wherein the model is a neural network configured to receive light intensity values, and their associated light source positions and light sensor positions, as an input layer, and to produce a representation of the material property, as an output layer.
A process for producing biogas from fibrous substrate by anaerobic fermentation, characterized by a) supplying the fibrous substrate together with process liquid to a fermenter containing anaerobic microorganisms as a function of the determined suspended dry matter content (TSS content) in this fermenter, b) subjecting the fibrous substrate to wet fermentation in this fermenter in order to produce biogas, c) withdrawing the outflow containing fermented fibrous substrate from the fermenter and determining the TSS content in the fermenter, d) the determined TSS content is compared with a fixed target range, and e) as a function of the result from d), repeating step a) with adjusted quantities in order to comply with the target range for the TSS in the fermenter. a) supplying the fibrous substrate together with process liquid to a fermenter containing anaerobic microorganisms as a function of the determined suspended dry matter content (TSS content) in this fermenter, b) subjecting the fibrous substrate to wet fermentation in this fermenter in order to produce biogas, c) withdrawing the outflow containing fermented fibrous substrate from the fermenter and determining the TSS content in the fermenter, d) the determined TSS content is compared with a fixed target range, and e) as a function of the result from d), repeating step a) with adjusted quantities in order to comply with the target range for the TSS in the fermenter.
A cell for an electrical energy store, with a cell housing , within which an electrode is arranged and on which a terminal is arranged on the outer side which is electrically connected to the electrode , wherein an electric protection element is connected in a current path (S) between the terminal and the electrode , for electrically isolating the electrode and the terminal , wherein the protection element is arranged outside the cell housing , characterised in that the electrode is electrically connected to the cell housing merely by way of the protection element , and in that in a tripped state of the protection element the electrode is electrically separated from the cell housing .
An electronic pump, comprising a first housing , a second housing , an end cover , an outer rotor part , an inner stator part and a circuit board ; the first housing , the second housing and the end cover being fixedly connected to form a pump chamber of the electronic pump, and the pump chamber being divided by a partition into a wet chamber allowing a working medium to pass through and at least one dry chamber where there is no working medium passing through, wherein the rotor part is arranged in the wet chamber , and the stator part and the circuit board are arranged in the dry chamber ; the electronic pump further comprises a shaft , and the shaft and the partition are fixed by injection molding; the partition forms a partition cavity, wherein the partition comprises a first side wall configured to separate the stator part from the rotor part and a top portion , said top portion comprising a sunken portion sinking from the top of the partition to an interior of the partition and being formed at a central area at the top portion of the partition , the sunken portion comprises a second side wall and a bottom , and forms a sunken cavity, the stator part is arranged in the partition cavity, the rotor part is arranged outside the partition cavity, and the shaft is fixed to the bottom of the sunken portion ; an upper end of the shaft extends out of the partition , the rotor part cooperates with an extending section of the shaft , and a portion of the rotor part of a rotation pair between the rotor part and the shaft is a cooperation portion of the rotor part ; the rotor part is of a bell shape and has a rotor cavity, wherein the rotor part comprises a rotor side wall and a rotor top portion, and wherein the cooperation portion comprises a first portion located above a lowest portion of a cavity top surface of the rotor cavity, and a second portion extending from the lowest portion of the cavity top surface into the rotor cavity, and at least a part of the second portion is located in the sunken cavity; and a length of the cooperation portion of the rotor part along the direction of the shaft is greater than or equal to a quarter of a height of the rotor part ; and after the stator part is fixedly connected to the second housing , a plane (H312), where the bottom of the sunken portion at the top portion of the partition is located, is slightly lower than a plane (H51), where an outer surface of a coil of the stator part is located, and is higher than a plane (H52), where an upper surface of a stator core of the stator part is located; and characterized in that , the second side wall of the sunken portion has a thickness smaller than a thickness of the top portion of the partition , a plurality of first reinforcing ribs are provided at an outer side of the second side wall and are configured to connect an inner side of the top portion and the second side wall , and the plurality of first reinforcing ribs start from the second side wall and end at an inner wall of the partition and are divergently arranged; and wherein a plurality of second reinforcing ribs are formed on the first side wall of the partition .
A rotor blade, comprising: a blade body comprising a skin , wherein the skin is configured to form an airfoil shape, and wherein the airfoil shape comprises an inboard end, an outboard end, a leading edge , and a trailing edge ; a blade nose comprising a cavity, wherein the cavity houses a plurality of modular weights at a plurality of radial blade locations; a spar structure comprising an upper spar cap and a lower spar cap , wherein the upper spar cap is coupled to an upper portion of the skin, and wherein the lower spar cap is coupled to the lower portion of the skin; wherein the upper spar cap and the lower spar cap are separate structural components which are not contiguous, freeing up a volume within the blade nose for positioning modular weights; and wherein the plurality of radial blade locations comprises a range of locations between the inboard end and the outboard end. a blade body comprising a skin , wherein the skin is configured to form an airfoil shape, and wherein the airfoil shape comprises an inboard end, an outboard end, a leading edge , and a trailing edge ; a blade nose comprising a cavity, wherein the cavity houses a plurality of modular weights at a plurality of radial blade locations; a spar structure comprising an upper spar cap and a lower spar cap , wherein the upper spar cap is coupled to an upper portion of the skin, and wherein the lower spar cap is coupled to the lower portion of the skin; wherein the upper spar cap and the lower spar cap are separate structural components which are not contiguous, freeing up a volume within the blade nose for positioning modular weights; and wherein the plurality of radial blade locations comprises a range of locations between the inboard end and the outboard end.
An electronic device, comprising: a frame body provided with a sound cavity , wherein the sound cavity comprises a sound inlet and a sound outlet ; a receiver , wherein a sound outlet surface of the receiver covers the sound inlet ; a cover body covering the sound outlet , wherein a sound outlet channel communicating with the sound cavity is formed between the cover body and the frame body ; and a display screen connected to the cover body and a side of the frame body facing away from the receiver , wherein the frame body comprises a vertical part and a horizontal part that are connected to each other; and the sound cavity is provided on the horizontal part , and the cover body and the vertical part form the sound outlet channel , wherein the cover body comprises a vertical cover body and a horizontal cover body that are connected to each other; the horizontal cover body covers at least a part of the sound outlet , and the sound outlet channel is formed between the vertical cover body and the vertical part , and the vertical cover body and the vertical part cooperate to form the sound outlet channel perpendicular to the display screen . a frame body provided with a sound cavity , wherein the sound cavity comprises a sound inlet and a sound outlet ; a receiver , wherein a sound outlet surface of the receiver covers the sound inlet ; a cover body covering the sound outlet , wherein a sound outlet channel communicating with the sound cavity is formed between the cover body and the frame body ; and a display screen connected to the cover body and a side of the frame body facing away from the receiver , wherein the frame body comprises a vertical part and a horizontal part that are connected to each other; and the sound cavity is provided on the horizontal part , and the cover body and the vertical part form the sound outlet channel , wherein the cover body comprises a vertical cover body and a horizontal cover body that are connected to each other; the horizontal cover body covers at least a part of the sound outlet , and the sound outlet channel is formed between the vertical cover body and the vertical part , and the vertical cover body and the vertical part cooperate to form the sound outlet channel perpendicular to the display screen .
A drug delivery device , comprising: - an outer needle sleeve ; - a cartridge containing a dosage of a medicament and sealed with a sealing element (2.1) that is arranged across an open distal end of the cartridge , - a cartridge carrier adapted to hold the cartridge ; - a needle hub adapted to hold a double ended hollow needle ; - a removable cap coupled to the inner needle sleeve and adapted to cover and seal the needle ; wherein in the initial state (S1) the needle is spaced from the cartridge in the distal direction (D); characterized by - an inner needle sleeve arranged between the needle hub and the cartridge carrier ; - a first locking mechanism (L1) adapted to lock the inner needle sleeve against axial movement in the proximal direction (P) with respect to the cartridge carrier in an initial state (S1) and - a second locking mechanism (L2) adapted to lock the cap against axial removal from the outer needle sleeve , wherein the first locking mechanism (L1) comprises at least one of a rib (4.1) or recess (3.2) on the cartridge carrier and at least one of a rib (4.1) or a recess (3.2) on the inner needle sleeve , wherein the first locking mechanism (L1) is releasable by a rotational movement of the cap with respect to the outer needle sleeve , wherein due to the relative rotational movement of the cap , the at least one rib (4.1) and the at least one recess (3.2) engage into each other such that the needle hub and the inner needle sleeve are allowed to move in the proximal direction (P) with respect to the cartridge carrier and wherein the second locking mechanism (L2) is releasable when the first locking mechanism (L1) is released. - an outer needle sleeve ; - a cartridge containing a dosage of a medicament and sealed with a sealing element (2.1) that is arranged across an open distal end of the cartridge , - a cartridge carrier adapted to hold the cartridge ; - a needle hub adapted to hold a double ended hollow needle ; - a removable cap coupled to the inner needle sleeve and adapted to cover and seal the needle ; - an inner needle sleeve arranged between the needle hub and the cartridge carrier ; - a first locking mechanism (L1) adapted to lock the inner needle sleeve against axial movement in the proximal direction (P) with respect to the cartridge carrier in an initial state (S1) and - a second locking mechanism (L2) adapted to lock the cap against axial removal from the outer needle sleeve ,
A method of forming an annealed additive manufacturing powder, comprising: - annealing an additive manufacturing powder, wherein annealing includes: - increasing a temperature of the additive manufacturing powder, wherein the additive manufacturing powder comprises a thermoplastic elastomer (TPE), wherein the temperature is increased to a temperature above the glass transition temperature of the additive manufacturing powder but below a melting temperature of the additive manufacturing powder for a first period of time; and - decreasing the temperature of the powder by at least 10 degrees Celsius after the first period of time to form the annealed additive manufacturing powder; wherein the unannealed additive manufacturing powder has a glass transition temperature and at least a primary melting temperature and a secondary melting temperature as determined by differential scanning calorimetry (DSC), wherein the primary melting temperature is at a higher temperature than the secondary melting temperature, characterised in that the glass transition temperature is below 0 degrees Celsius, the primary melting temperature is above 120 degrees Celsius, the secondary melting temperature is between the glass transition temperature and the primary melting temperature, and the secondary melting temperature is 30 degrees Celsius to 100 degrees Celsius. - annealing an additive manufacturing powder, wherein annealing includes: - increasing a temperature of the additive manufacturing powder, wherein the additive manufacturing powder comprises a thermoplastic elastomer (TPE), wherein the temperature is increased to a temperature above the glass transition temperature of the additive manufacturing powder but below a melting temperature of the additive manufacturing powder for a first period of time; and - decreasing the temperature of the powder by at least 10 degrees Celsius after the first period of time to form the annealed additive manufacturing powder;
An automotive testing system for testing camera-based functionalities, the camera-based functionalities being: - variable cruise control, - collision avoidance systems and - pedestrian detection, comprising a data processing unit provided with a data input port for receiving sensor input data and a data output port for transmitting processed data, further comprising a data acquisition unit forwarding sensor input data to said data processing unit, the data acquisition unit including a sensor unit having a sensor system and an electronic system for capturing sensor data, characterised in that the automotive testing system further comprises a synthetic sensor data generator transmitting synthetic sensor data to the electronic system of the sensor unit, the sensor being a camera. - variable cruise control, - collision avoidance systems and - pedestrian detection,
A power tool, comprising: a housing; and an electric motor disposed in the housing, the motor including a stator having a lamination stack having separately-formed pole pieces and field coils disposed on the pole pieces; an armature disposed in the stator; and an end ring disposed at an end of the lamination stack , the end ring including at least two ring pieces located around a portion of the field coils extending beyond pole tips of the pole pieces; wherein the at least two ring pieces comprise two ring halves; characterised in that the at least two ring pieces are mated together around the portion of the field coils ; wherein the at least two ring pieces include mating features for connecting the at least two ring pieces together. a housing; and an electric motor disposed in the housing, the motor including a stator having a lamination stack having separately-formed pole pieces and field coils disposed on the pole pieces; an armature disposed in the stator; and an end ring disposed at an end of the lamination stack , the end ring including at least two ring pieces located around a portion of the field coils extending beyond pole tips of the pole pieces; wherein the at least two ring pieces comprise two ring halves; characterised in that the at least two ring pieces are mated together around the portion of the field coils ; wherein the at least two ring pieces include mating features for connecting the at least two ring pieces together.
A hydrostatic seal configured to be disposed between relatively rotatable components, the seal comprising: a base ; a seal housing; a shoe operatively coupled to the base and extending axially from a forward end to an aft end; and a plurality of teeth extending radially from a sealing surface of the shoe, one of the teeth being a longest tooth that extends furthest radially from the sealing surface and having a radial tooth tip, and a ramp extending from the forward end of the shoe to the radial tooth tip, characterized by : an axial distance from a forward end of the shoe to the longest tooth being greater than a radial distance from the radial tooth tip to the sealing surface. a base ; a seal housing; a shoe operatively coupled to the base and extending axially from a forward end to an aft end; and a plurality of teeth extending radially from a sealing surface of the shoe, one of the teeth being a longest tooth that extends furthest radially from the sealing surface and having a radial tooth tip, and a ramp extending from the forward end of the shoe to the radial tooth tip,
A cooling device comprising at least one freezing compartment ; at least one evaporator which transfers heat with the air in the freezing compartment so as to keep the freezing compartment at a desired temperature; at least one fan which disperses the air, which is brought to the desired temperature by means of the evaporator , in the freezing compartment ; at least one dehumidification apparatus which is placed into the freezing compartment and which comprises a body having at least one inlet opening , at least one outlet opening and at least one desiccant material which is placed between the inlet opening and the outlet opening and which dehumidifies humid air entering through the inlet opening , thus enabling the dehumidified air to leave through the outlet opening , characterized by the body which extends so as to narrow from the inlet opening towards the outlet opening .