mhurhangee/patent-ind-claim-en huggingface dataset:
Appliance for drying laundry, comprising at least one open process air system having at least one drying chamber for receiving laundry to be dried and at least one heat pump that is thermally coupled to the process air system , which heat pump has at least one evaporator serving as a heat sink for process air discharged from the drying chamber and at least one condenser serving as a heat source for the process air to be supplied to the drying chamber , characterised in that the evaporator and the condenser are arranged laterally side-by-side to one another in a direction perpendicular to a vertical axis of the appliance and offset in height in respect to each other in the direction of the vertical axis of the appliance, wherein either on the one hand one portion of a first process air duct connecting the drying chamber to the evaporator extends above the condenser and one portion of a second process air duct connecting the condenser to the drying chamber extends below the evaporator or on the other hand one portion of a first process air duct connecting the drying chamber to the evaporator extends below the condenser and one portion of a second process air duct connecting the condenser to the drying chamber extends above the evaporator , wherein the evaporator and the condenser are arranged laterally at a distance from one another leaving a defined installation space in the direction perpendicular to the vertical axis of the appliance, wherein the portion of the first process air duct extending above or below the condenser is connected communicatively to a supply portion of the first process air duct widening in the direction of the evaporator and connected to the evaporator , wherein the portion of the second process air duct extending below or above the evaporator is connected communicatively to a discharge portion of the second process air duct widening in the direction of the condenser and connected to the condenser , and wherein the supply portion and the discharge portion are arranged adjacent to one another in the direction of the appliance height and are at least largely arranged in the installation space between the evaporator and the condenser , and taper in opposite directions.
A computer-implemented method for predicting a probability that a patient may have a particular neurological disease , the method comprising: - analyzing a pre-stored brain image of the patient by means of a Convolutional Neural Network, CNN, to determine brain image analysis results including a presence of a tumor or lesion , brain age , brain health based on an evaluation of the combined effects of whole brain tissue atrophy and vascular disease in a single measure, and gyrification coefficient : - receiving additional data, including: voice recognition index corresponding to the patient's capability to retell a story and additional symptom checks corresponding to at least one of blurry vision, speech disorders, hypertension, memory problems or headaches, - combining the brain image analysis result with the additional data (121-124) to create a health portrait of the patient and comparing said health portrait with a dataset composed of normal and pathological portraits of other individuals with neurodegenerative conditions to determine a score related to the probability that the patient may have a particular neurological disease. - analyzing a pre-stored brain image of the patient by means of a Convolutional Neural Network, CNN, to determine brain image analysis results including a presence of a tumor or lesion , brain age , brain health based on an evaluation of the combined effects of whole brain tissue atrophy and vascular disease in a single measure, and gyrification coefficient : - receiving additional data, including: voice recognition index corresponding to the patient's capability to retell a story and additional symptom checks corresponding to at least one of blurry vision, speech disorders, hypertension, memory problems or headaches, - combining the brain image analysis result with the additional data (121-124) to create a health portrait of the patient and comparing said health portrait with a dataset composed of normal and pathological portraits of other individuals with neurodegenerative conditions to determine a score related to the probability that the patient may have a particular neurological disease. - receiving additional data, including: voice recognition index corresponding to the patient's capability to retell a story and additional symptom checks corresponding to at least one of blurry vision, speech disorders, hypertension, memory problems or headaches, - combining the brain image analysis result with the additional data (121-124) to create a health portrait of the patient and comparing said health portrait with a dataset composed of normal and pathological portraits of other individuals with neurodegenerative conditions to determine a score related to the probability that the patient may have a particular neurological disease.
Method for aligning in a row and righting preforms , in particular preforms made of thermoplastic material that are intended to be shaped into final containers by a forming station, the method being intended to be applied to axisymmetric preforms that have an annular support face and a body with a diameter smaller than the diameter of said support face , the method involving: - a first step, of discharging preforms in bulk onto a rotating horizontal plate ; - a second step, of aligning the preforms against a fixed peripheral guard-bar by the centrifugal force produced by the rotation of the rotating plate , the preforms being driven in movement by the rotating plate along said guard-bar against which they are held by the centrifugal force, each preform that is aligned against the guiding guard-bar having a main axis (A) that is oriented substantially horizontally; - a third step, of successively righting the aligned preforms by tilting the body of the preforms below their annular support face until their main axis (A) of the preform is vertical, each preform being supported via its support face between two bearing points that are opposite one another; characterized in that , during the second alignment step, the main axis (A) of the preforms is oriented substantially tangentially to their direction of movement until they are righted. - a first step, of discharging preforms in bulk onto a rotating horizontal plate ; - a second step, of aligning the preforms against a fixed peripheral guard-bar by the centrifugal force produced by the rotation of the rotating plate , the preforms being driven in movement by the rotating plate along said guard-bar against which they are held by the centrifugal force, each preform that is aligned against the guiding guard-bar having a main axis (A) that is oriented substantially horizontally; - a third step, of successively righting the aligned preforms by tilting the body of the preforms below their annular support face until their main axis (A) of the preform is vertical, each preform being supported via its support face between two bearing points that are opposite one another;
A method for measuring the cornea of the eye with an optical coherence tomography system (OCT), said method comprising: collecting a first set of OCT data over a series of transverse locations on the cornea of the eye within a time short enough to avoid any significant motion of the cornea; processing the data collected in the first data set to generate a surface model of the cornea; collecting a second set of OCT data over a series of transverse locations on the cornea of the eye; determining one or both of the axial and transverse motion in the second data set by fitting the data in the second set to the surface model of the cornea created from the first set; creating a motion-corrected data set from the second data set using the determination of axial and transverse motion; and storing or displaying of the motion-corrected data set or information derived from the motion-corrected data set. collecting a first set of OCT data over a series of transverse locations on the cornea of the eye within a time short enough to avoid any significant motion of the cornea; processing the data collected in the first data set to generate a surface model of the cornea; collecting a second set of OCT data over a series of transverse locations on the cornea of the eye; determining one or both of the axial and transverse motion in the second data set by fitting the data in the second set to the surface model of the cornea created from the first set; creating a motion-corrected data set from the second data set using the determination of axial and transverse motion; and storing or displaying of the motion-corrected data set or information derived from the motion-corrected data set.
A system for manufacturing a molded product, comprising a molding machine , an apparatus for taking out a molded product, and one or more peripheral devices arranged around the apparatus to operate together during operation of the apparatus, characterized in : at least one of the molding machine and the apparatus includes a communication device operable to transmit internal data to an external server together with identification information on a die mounted to the molding machine via a communication network ; and the communication device is configured to transmit external data, which is output from the one or more peripheral devices , to the external server together with the identification information on the die. at least one of the molding machine and the apparatus includes a communication device operable to transmit internal data to an external server together with identification information on a die mounted to the molding machine via a communication network ; and the communication device is configured to transmit external data, which is output from the one or more peripheral devices , to the external server together with the identification information on the die.
A turboengine blading member , comprising a platform and an airfoil , the airfoil comprising a pressure side , a suction side , a leading edge and a trailing edge , an upstream region of the airfoil extending from the leading edge in a direction towards the trailing edge and a downstream region of the airfoil extending from the trailing edge in a direction towards the leading edge , the airfoil being connected to the platform in the upstream region, the airfoil being disconnected from the platform in the downstream region, such that the downstream region cantilevers from the upstream region , whereby a gap is formed between a cross sectional face of the airfoil in the downstream region and an opposed surface of the platform facing said cross sectional face, characterized in that an airfoil pocket is provided in the downstream section of the airfoil and opening out onto the cross sectional face of the airfoil, a platform pocket is provided in the platform and opening out onto the surface of the platform opposed the airfoil pocket, the airfoil pocket and the platform pocket being arranged with mutually facing openings, and a sealing member being provided inside the pockets and extending into the airfoil pocket as well as into the platform pocket and thereby bridging the gap , and the sealing member exhibiting a length (l) which extends in a direction from the upstream region of the airfoil towards the trailing edge and a width (w) which extends in a direction from one pocket to the other pocket.
A method for adjusting a centrifugal particle spreader, said spreader implementing a first correction of an effect, called flowrate effect, of a variation in the particle feed flowrate relative to a target flowrate on a ground sheet covered by said particles and/or on a transverse distribution of said particles, taking into account a target dose, a speed of movement (V) of said centrifugal spreader and a target working width, said method further comprises a step of determining a correction of a speed effect resulting in a deformation and/or a movement of a shape of the ground sheet and/or the transverse distribution according to a speed of movement (V) and acting on at least one actuating member allowing to modify the shape of the ground sheet and/or the transverse distribution, whose step of determining the correction of a speed effect determines or modifies or delivers a parameter (P) belonging to the group comprising: - a parameter modifying a particle feed point on the disc; - a parameter modifying an inclination of said disc(s); - a parameter modifying a rotation speed of said disc(s); - a parameter modifying an inclination of the centrifugal spreader; characterised in that said correction of a speed effect applies to the deposit point an angular offset Δθ according to an angle centred on an axis of the concerned disc, written as follows: Δ θ = ∑ i = 0 N k i ∗ V i with V the speed of movement, N is an integer greater than or equal to 1, and k i a determined coefficient. said method further comprises a step of determining a correction of a speed effect resulting in a deformation and/or a movement of a shape of the ground sheet and/or the transverse distribution according to a speed of movement (V) and acting on at least one actuating member allowing to modify the shape of the ground sheet and/or the transverse distribution, whose step of determining the correction of a speed effect determines or modifies or delivers a parameter (P) belonging to the group comprising: - a parameter modifying a particle feed point on the disc; - a parameter modifying an inclination of said disc(s); - a parameter modifying a rotation speed of said disc(s); - a parameter modifying an inclination of the centrifugal spreader; - a parameter modifying a particle feed point on the disc; - a parameter modifying an inclination of said disc(s); - a parameter modifying a rotation speed of said disc(s); - a parameter modifying an inclination of the centrifugal spreader; characterised in that said correction of a speed effect applies to the deposit point an angular offset Δθ according to an angle centred on an axis of the concerned disc, written as follows: Δ θ = ∑ i = 0 N k i ∗ V i with V the speed of movement, N is an integer greater than or equal to 1, and k i a determined coefficient.
Polyoxometalate represented by the formula (A n ) m+ [M'M 12 X 8 O y ] m- or solvates thereof, wherein each A independently represents a cation and is selected from the group consisting of Li, K, Na and combinations thereof, n is the number of cations, all M are the same, and are selected from the group consisting of Pd and Pt, and each M has d 8 valence electron configuration, M' is selected from the group consisting of Ge, Sn, and Pb, X is P, y is a number from 32 to 40, and m is a number representing the total positive charge m+ of n cations A and the corresponding negative charge m- of the polyanion [M'M 12 X 8 O y ]. each A independently represents a cation and is selected from the group consisting of Li, K, Na and combinations thereof, n is the number of cations, all M are the same, and are selected from the group consisting of Pd and Pt, and each M has d 8 valence electron configuration, M' is selected from the group consisting of Ge, Sn, and Pb, X is P, y is a number from 32 to 40, and m is a number representing the total positive charge m+ of n cations A and the corresponding negative charge m- of the polyanion [M'M 12 X 8 O y ].
An ablation device for treatment of tissue in body lumens with varying sizes, the device comprising: a catheter ; an expansion member coupled with a distal portion of the catheter; an ablation structure comprising a plurality of longitudinal electrode regions (502,504,506,702-718,802-810,902-912,1006-1016) wherein each of the electrode regions is configured to be selectively enabled or disabled; an ablation structure support coupled with the ablation structure, wherein the ablation structure and the ablation structure support are configured to at least partially unfurl or furl around the expansion member as the expansion member expands or contracts, the ablation device being arranged so that as the expansion member expands and the ablation structure unfurls, longitudinal electrode regions are exposed from beneath an overlapping portion of the ablation structure; and a power source configured to selectively enable the plurality of longitudinal electrode regions, characterized in that the power source is configured to sequentially enable the longitudinal electrode regions starting with the longitudinal electrode region adjacent a free edge of the ablation structure , the power source being further configured to detect a first electrode region that is fully shielded by the overlapping portion of the ablation structure and to stop the sequential enabling of the longitudinal electrode regions when the first fully shielded longitudinal electrode region is detected. a catheter ; an expansion member coupled with a distal portion of the catheter; an ablation structure comprising a plurality of longitudinal electrode regions (502,504,506,702-718,802-810,902-912,1006-1016) wherein each of the electrode regions is configured to be selectively enabled or disabled; an ablation structure support coupled with the ablation structure, wherein the ablation structure and the ablation structure support are configured to at least partially unfurl or furl around the expansion member as the expansion member expands or contracts, the ablation device being arranged so that as the expansion member expands and the ablation structure unfurls, longitudinal electrode regions are exposed from beneath an overlapping portion of the ablation structure; and a power source configured to selectively enable the plurality of longitudinal electrode regions, characterized in that the power source is configured to sequentially enable the longitudinal electrode regions starting with the longitudinal electrode region adjacent a free edge of the ablation structure , the power source being further configured to detect a first electrode region that is fully shielded by the overlapping portion of the ablation structure and to stop the sequential enabling of the longitudinal electrode regions when the first fully shielded longitudinal electrode region is detected.
A structure (400; 500; 600; 700; 800; 1000) for being included in an outer wall of a building and configured to provide an enclosed and/or shielded space beyond the outer wall of the building that a person can use and/or occupy, the structure comprising: a frame configured to be secured and positioned in a wall opening: several expansion units (410, 420, 430; 510, 520, 530; 610, 620, 630; 710, 720, 730), each expansion unit having: - a first member movable about a connection, wherein the first member defines a left side member , a top side member, and a right side member, wherein a lower portion of the left side member and the right side member are movably connected to the frame by a mechanism ; and - a sash member (516; 616) permanently secured to the left side member , the top side member, and the right side member of the first member , wherein the left side member , the top side member, and the right side member of the first member form a weatherproof seal with the sash member (516; 616) and the frame , the mechanism allowing movement of the structure (700; 1000) between a retracted position and an extended position, the structure being characterized in that the mechanism includes gear driven crank systems, wherein each expansion unit (410, 420, 430; 510, 520, 530; 610, 620, 630; 710, 720, 730) is movably connected to an independent crank system. - a first member movable about a connection, wherein the first member defines a left side member , a top side member, and a right side member, wherein a lower portion of the left side member and the right side member are movably connected to the frame by a mechanism ; and - a sash member (516; 616) permanently secured to the left side member , the top side member, and the right side member of the first member , wherein the left side member , the top side member, and the right side member of the first member form a weatherproof seal with the sash member (516; 616) and the frame ,
A method of reducing acoustic feedback in an acoustic system comprising at least one audio device , the method comprising: generating an estimated system gain spectrum of the acoustic system, wherein the estimated system gain spectrum is updated in real-time to respond to changes in the acoustic system; tracking peak gains in the estimated system gain spectrum as the estimated system gain spectrum is updated in real-time; identifying based on the tracking at least one frequency at which the estimated system gain spectrum is currently exhibiting a peak gain; and characterized by : based on said identification of the at least one frequency, controlling an audio equalizer to apply, to a first speech containing signal to be played out via an audio output device of the audio device and/or to a second speech containing signal received via an audio input device of the audio device, an equalization filter to reduce the level of the first and/or second speech containing signal in a portion of its spectrum that includes the identified frequency, wherein the equalization filter is applied continuously throughout intervals of both speech activity and speech inactivity in the first and/or second speech containing signal. generating an estimated system gain spectrum of the acoustic system, wherein the estimated system gain spectrum is updated in real-time to respond to changes in the acoustic system; tracking peak gains in the estimated system gain spectrum as the estimated system gain spectrum is updated in real-time; identifying based on the tracking at least one frequency at which the estimated system gain spectrum is currently exhibiting a peak gain; and characterized by : based on said identification of the at least one frequency, controlling an audio equalizer to apply, to a first speech containing signal to be played out via an audio output device of the audio device and/or to a second speech containing signal received via an audio input device of the audio device, an equalization filter to reduce the level of the first and/or second speech containing signal in a portion of its spectrum that includes the identified frequency, wherein the equalization filter is applied continuously throughout intervals of both speech activity and speech inactivity in the first and/or second speech containing signal.