mhurhangee/patent-ind-claim-en huggingface dataset:
A bandpass filter, comprising: a set of layers including: a first subset of layers , the first subset of layers comprising hydrogenated germanium (Ge:H) with a first refractive index; and a second subset of layers , the second subset of layers comprising a material with a second refractive index, the second refractive index being less than the first refractive index, and wherein the material is one of: a silicon dioxide (SiO 2 ) material, an aluminum oxide (Al 2 O 3 ) material, a titanium dioxide (TiO 2 ) material, a niobium pentoxide (Nb 2 O 5 ) material, a tantalum pentoxide (Ta 2 O 5 ) material, or a magnesium fluoride (MgF 2 ) material; and the bandpass filter is configured to pass a first portion of incident light within a spectral range with a center wavelength of approximately 1550 nanometers (nm) and reflect a second portion of incident light not within the spectral range; and wherein the first refractive index is greater than 4.2 at a wavelength of approximately 1550 nanometers. a set of layers including: a first subset of layers , the first subset of layers comprising hydrogenated germanium (Ge:H) with a first refractive index; and a second subset of layers , the second subset of layers comprising a material with a second refractive index, the second refractive index being less than the first refractive index, and wherein the material is one of: a silicon dioxide (SiO 2 ) material, an aluminum oxide (Al 2 O 3 ) material, a titanium dioxide (TiO 2 ) material, a niobium pentoxide (Nb 2 O 5 ) material, a tantalum pentoxide (Ta 2 O 5 ) material, or a magnesium fluoride (MgF 2 ) material; a silicon dioxide (SiO 2 ) material, an aluminum oxide (Al 2 O 3 ) material, a titanium dioxide (TiO 2 ) material, a niobium pentoxide (Nb 2 O 5 ) material, a tantalum pentoxide (Ta 2 O 5 ) material, or a magnesium fluoride (MgF 2 ) material; and the bandpass filter is configured to pass a first portion of incident light within a spectral range with a center wavelength of approximately 1550 nanometers (nm) and reflect a second portion of incident light not within the spectral range; and wherein the first refractive index is greater than 4.2 at a wavelength of approximately 1550 nanometers.
A presence detection system comprising: an IR sensor configured to scan an area and capture a plurality of IR frames (F(w,h)); each frame comprising a plurality of pixels; and a processor; characterized in that the processor is configured to: calculate a plurality of average IR frames (F φ,t ) over various time intervals by averaging the respective IR frame pixels over the respective time interval; calculate a plurality of delta frames (F Δ(m,n) ), wherein each delta frame (F Δ(m,n) ) is the difference between the current average IR frame (F ave,m ) and the average IR frame (F ave,n ) calculated over the previous of said time intervals; calculate a mask frame (F MASK ), wherein the mask frame (F MASK ) is a summation of the delta frames (F Δ(m,n) ); and determine whether a stationary presence exists based on the value of the mask frame (F MASK ) . an IR sensor configured to scan an area and capture a plurality of IR frames (F(w,h)); each frame comprising a plurality of pixels; and a processor; characterized in that the processor is configured to: calculate a plurality of average IR frames (F φ,t ) over various time intervals by averaging the respective IR frame pixels over the respective time interval; calculate a plurality of delta frames (F Δ(m,n) ), wherein each delta frame (F Δ(m,n) ) is the difference between the current average IR frame (F ave,m ) and the average IR frame (F ave,n ) calculated over the previous of said time intervals; calculate a mask frame (F MASK ), wherein the mask frame (F MASK ) is a summation of the delta frames (F Δ(m,n) ); and determine whether a stationary presence exists based on the value of the mask frame (F MASK ) . calculate a plurality of average IR frames (F φ,t ) over various time intervals by averaging the respective IR frame pixels over the respective time interval; calculate a plurality of delta frames (F Δ(m,n) ), wherein each delta frame (F Δ(m,n) ) is the difference between the current average IR frame (F ave,m ) and the average IR frame (F ave,n ) calculated over the previous of said time intervals; calculate a mask frame (F MASK ), wherein the mask frame (F MASK ) is a summation of the delta frames (F Δ(m,n) ); and determine whether a stationary presence exists based on the value of the mask frame (F MASK ) .
A drive system , having: a drive apparatus , a belt , and a control unit for controlling the drive apparatus , the drive system being designed to perform a linear relative movement between the drive apparatus and a belt drive section of the belt in a reference direction , the drive apparatus having multiple electromagnetic coils which are arranged one behind the other in a reference direction , the belt having a base material , composed in particular of rubber material or polyurethane, the belt having multiple permanent magnets which are embedded into the base material of the belt drive section and adjacent to one another with alternating magnetic field orientation in the reference direction , the control unit being coupled to the coils of the drive apparatus such that a common drive electromagnetic field can be generated by means of the coils , the drive apparatus and the belt drive section being arranged relative to one another such that the drive electromagnetic field that can be generated by the coils acts on the permanent magnets , and the control unit being designed to activate the coils so as to displace the drive electromagnetic field in the reference direction , such that a drive force is generated which acts on the drive apparatus and on the belt in or opposite to the reference direction , thus effecting the relative movement, characterized in that , the drive apparatus and the belt drive section are arranged relative to one another such that the drive electromagnetic field that can be generated by the coils acts on at least two of the permanent magnets .
An apparatus for a time-of-flight mass spectrometer , the apparatus comprising an ion drift channel and a pulse pin ion gate that comprises: a pin element protruding into the ion drift channel and electrically isolated from adjacent surface of the ion drift channel; first and second grids traversing and electrically connected to the drift channel , the first grid positioned on a first side of the pin element and the second grid positioned on an opposite, second side of the pin element , the first and second grids positioned in and at laterally offset positions along the ion drift channel. a pin element protruding into the ion drift channel and electrically isolated from adjacent surface of the ion drift channel; first and second grids traversing and electrically connected to the drift channel , the first grid positioned on a first side of the pin element and the second grid positioned on an opposite, second side of the pin element , the first and second grids positioned in and at laterally offset positions along the ion drift channel.
A mechanism for opening and reclosing an outflow opening for emptying a container, especially a beverage container, incorporating a lid comprising the outflow opening and a latch to open and reclose the said outflow opening in the container lid, where the latch is fitted with hatching elements connected slidingly to the container lid, and wherein the lid features technical means suitable for initiating movement of the latch, characterised in that the lid contains at least one pair of sliding surfaces , each of them incorporating at least one section in the shape of a convex arch, wherein at least one pair of hatching elements formed on the latch is moving on the said pair of sliding surfaces when shifting the latch , and wherein ends of the sliding surfaces are positioned at different heights with respect to the bottom surface of the lid at the opening , so that the end of each sliding surface from which the movement of the latch starts towards the opening of the outflow opening is positioned higher than its other end , and wherein the latch in the closed position contacts the bottom surface of the lid around the outflow opening , and in the open position is distant from the bottom surface of the lid .
A negative electrode for a lithium-ion battery, characterized in that the negative electrode comprises: a current collector ; and at least two graphite layers with different capacity densities for covering a surface of the current collector in a stacked manner; wherein the at least two graphite layers further comprise an innermost graphite layer in contact with the current collector and at least one non-innermost graphite layer facing away from the current collector , and a capacity density of the at least one non-innermost graphite layer is greater than a capacity density of the innermost graphite layer ; wherein the capacity densities of the at least two graphite layers gradually increase in a direction away from the current collector ; wherein capacities per gram, compacted densities and graphite particle median diameters of the at least two graphite layers gradually increase in the direction away from the current collector . a current collector ; and at least two graphite layers with different capacity densities for covering a surface of the current collector in a stacked manner; wherein the at least two graphite layers further comprise an innermost graphite layer in contact with the current collector and at least one non-innermost graphite layer facing away from the current collector , and a capacity density of the at least one non-innermost graphite layer is greater than a capacity density of the innermost graphite layer ; wherein the capacity densities of the at least two graphite layers gradually increase in a direction away from the current collector ; wherein capacities per gram, compacted densities and graphite particle median diameters of the at least two graphite layers gradually increase in the direction away from the current collector .
An air management device, comprising: a housing defining at least one interior space and extending from side to side, the housing being supported by a plurality of legs at a bottom of the housing , and the legs providing a space between the bottom of the housing and a floor of a livable space to allow passage of air through a bottom inlet formed at the bottom of the housing ; a heat exchanger installed in the at least one interior space and configured to exchange heat between a working fluid of a heat exchange cycle and air passing through the at least one interior space; and a plurality of impellers (131, 131', 131") provided in the interior space to create an air flow from air of the livable space to pass through the bottom inlet and the heat exchanger and discharge to the livable space, characterized in that the air management device further comprises at least one retractable fan configured to protrude above an upper surface of the housing and rotate when protruding above the upper surface of the housing . a housing defining at least one interior space and extending from side to side, the housing being supported by a plurality of legs at a bottom of the housing , and the legs providing a space between the bottom of the housing and a floor of a livable space to allow passage of air through a bottom inlet formed at the bottom of the housing ; a heat exchanger installed in the at least one interior space and configured to exchange heat between a working fluid of a heat exchange cycle and air passing through the at least one interior space; and a plurality of impellers (131, 131', 131") provided in the interior space to create an air flow from air of the livable space to pass through the bottom inlet and the heat exchanger and discharge to the livable space, characterized in that the air management device further comprises at least one retractable fan configured to protrude above an upper surface of the housing and rotate when protruding above the upper surface of the housing .
A voice signal alignment method performed by a voice signal alignment apparatus, the method comprising: • obtaining (S210) an original voice signal and a test voice signal, wherein the test voice signal is a voice signal generated after the original voice signal is transmitted over a communications network; • performing (S220) loss detection and/or discontinuity detection on the test voice signal, wherein the loss detection is used to determine whether the test voice signal has a voice signal loss compared with the original voice signal, and the discontinuity detection is used to determine whether the test voice signal has a voice signal discontinuity compared with the original voice signal; • aligning (S230) the test voice signal with the original voice signal based on a result of the loss detection and/or the discontinuity detection, to obtain an aligned test voice signal and an aligned original voice signal, wherein the result of the loss detection and/or the discontinuity detection is used to indicate a manner of aligning the test voice signal with the original voice signal; • detecting the aligned test voice signal based on a machine learning model and based on the aligned original voice signal, to determine whether the aligned test voice signal is an abnormal voice signal, or to determine an abnormal type of the aligned test voice signal. • obtaining (S210) an original voice signal and a test voice signal, wherein the test voice signal is a voice signal generated after the original voice signal is transmitted over a communications network; • performing (S220) loss detection and/or discontinuity detection on the test voice signal, wherein the loss detection is used to determine whether the test voice signal has a voice signal loss compared with the original voice signal, and the discontinuity detection is used to determine whether the test voice signal has a voice signal discontinuity compared with the original voice signal; • aligning (S230) the test voice signal with the original voice signal based on a result of the loss detection and/or the discontinuity detection, to obtain an aligned test voice signal and an aligned original voice signal, wherein the result of the loss detection and/or the discontinuity detection is used to indicate a manner of aligning the test voice signal with the original voice signal; • detecting the aligned test voice signal based on a machine learning model and based on the aligned original voice signal, to determine whether the aligned test voice signal is an abnormal voice signal, or to determine an abnormal type of the aligned test voice signal.
Method of controlling a wind turbine during damping a mechanical oscillation of the wind turbine having a generator system coupled to a rotor at which plural rotor blades are mounted, the method comprising: generating a damping control signal in dependence of an indication of the mechanical oscillation of the wind turbine; performing damping control of the generator system based on the damping control signal causing damping related power output variation at an output terminal of the generator system ; and controlling an energy storage device connected to the output terminal of the generator system and connected to an output terminal of the wind turbine based on the damping control signal , wherein controlling the energy storage device based on the damping control signal comprises: supplying an energy storage controller input signal based on the damping control signal to an energy storage controller; generating an energy storage device control signal by the energy storage controller; controlling the energy storage by the energy storage device control signal, wherein the energy storage controller input signal is proportional to a high pass filtered generator system active power reference , the generator system active power reference defining an amplitude of a power reference. generating a damping control signal in dependence of an indication of the mechanical oscillation of the wind turbine; performing damping control of the generator system based on the damping control signal causing damping related power output variation at an output terminal of the generator system ; and controlling an energy storage device connected to the output terminal of the generator system and connected to an output terminal of the wind turbine based on the damping control signal , supplying an energy storage controller input signal based on the damping control signal to an energy storage controller; generating an energy storage device control signal by the energy storage controller; controlling the energy storage by the energy storage device control signal, wherein the energy storage controller input signal is proportional to a high pass filtered generator system active power reference , the generator system active power reference defining an amplitude of a power reference.
A vehicle comprising a maneuvering system for maneuvering a predetermined part of the vehicle into a target position provided by a target object , the maneuvering system comprising a first optical sensor device , arranged at the vehicle , for capturing the target object and a calculating device for calculating a trajectory of the predetermined part of the vehicle into the target position by way of an image of the target object captured by the first optical sensor device , the maneuvering system comprising a second optical sensor device arranged at the vehicle in a manner offset relative to the first optical sensor device in a longitudinal direction of the vehicle , characterized in that the optical sensor devices are configured so as to allow a trajectory of the predetermined part of the vehicle into the target position to be calculated independently of one another, together with the calculating device.
A vaccine composition for use in the induction of cellular immunity, comprising: a cancer antigenic peptide or a peptide antigen derived from an infectious pathogen, and at least one first cellular immunity induction promoter, wherein said first cellular immunity induction promoter is etodolac, and wherein the composition is transdermally administered (i) under a condition in which transepidermal water loss (TEWL) (g/h m2) is 50 or less as evaluated by model animals for evaluating skin irritation, or (ii) under a condition in which cutaneous TSLP level (pg/mg protein) is 10000 or less as evaluated by model animals for evaluating skin irritation. a cancer antigenic peptide or a peptide antigen derived from an infectious pathogen, and at least one first cellular immunity induction promoter, wherein said first cellular immunity induction promoter is etodolac, and wherein the composition is transdermally administered (i) under a condition in which transepidermal water loss (TEWL) (g/h m2) is 50 or less as evaluated by model animals for evaluating skin irritation, or (ii) under a condition in which cutaneous TSLP level (pg/mg protein) is 10000 or less as evaluated by model animals for evaluating skin irritation.
A method implemented by one or more processors, the method comprising: determining that a user is requesting that a controllable device , disposed within an environment of the user, be configured for responding to an input gesture, wherein the input gesture is a user input provided to a touch screen display of a computing device when a graphical representation of the controllable device is portrayed at the touch screen display of the computing device; processing image data received from the computing device, wherein the image data is based on an output of a camera of the computing device when the camera is directed at the controllable device; determining, based on processing the image data, an adjustable setting of the controllable device, wherein the adjustable setting, when modified, alters at least one state of the controllable device; and causing, based on determining the adjustable setting of the controllable device, data associated with the user to characterize a correlation between the input gesture and the adjustable setting of the controllable device, wherein the computing device is configured to receive the input gesture at the touch screen display and cause a command to be provided to the controllable device to modify the at least one state of the controllable device. determining that a user is requesting that a controllable device , disposed within an environment of the user, be configured for responding to an input gesture, wherein the input gesture is a user input provided to a touch screen display of a computing device when a graphical representation of the controllable device is portrayed at the touch screen display of the computing device; processing image data received from the computing device, wherein the image data is based on an output of a camera of the computing device when the camera is directed at the controllable device; determining, based on processing the image data, an adjustable setting of the controllable device, wherein the adjustable setting, when modified, alters at least one state of the controllable device; and causing, based on determining the adjustable setting of the controllable device, data associated with the user to characterize a correlation between the input gesture and the adjustable setting of the controllable device, wherein the computing device is configured to receive the input gesture at the touch screen display and cause a command to be provided to the controllable device to modify the at least one state of the controllable device.
A DNase 1-like 3 (D1L3) variant for use in the treatment of diseases or conditions characterized by the presence or accumulation of neutrophil extracellular traps (NETs), wherein the D1L3 variant comprises an amino acid sequence that has at least 90% sequence identity to the mature enzyme defined by SEQ ID NO: 2 lacking the signal peptide, with the proviso that the D1L3 variant has a deletion of all or part of the C-terminal tail defined by SEQ ID NO: 33.
A live, attenuated infectious bronchitis virus (IBV) comprising a mutation in non-structural protein nsp-3, wherein the mutation in nsp-3 is in the adenosine diphosphate-ribose-1'-phosphatase (ADRP) region shown as positions 332 to 491 of SEQ ID NO: 6 and causes the virus to have reduced pathogenicity compared to a corresponding wild-type coronavirus, wherein the mutation comprises one or more amino acid mutations selected from the list of: a) Asn (N) to Ala (A) at position 373 in SEQ ID NO: 6; and b) Gly (G) to Ser (S) at position 379 in SEQ ID NO: 6. a) Asn (N) to Ala (A) at position 373 in SEQ ID NO: 6; and b) Gly (G) to Ser (S) at position 379 in SEQ ID NO: 6.
Retention member for securing a catheter on a patient (P), comprising: - a base element having a bottom side and a top side , the bottom side being placeable on the patient (P) and the top side being adapted for receiving the catheter , wherein a ribbon has a first end connected to the top side of the base element and has a second end opposite the first end , wherein the base element comprises at least one opening through which the second end of the ribbon is insertable for fixing the catheter on the retention member in between the base element and the ribbon , wherein the base element comprises a first opening and a second opening separated by a rib , the ribbon being insertable through the first opening and the second opening to extend about the rib . - a base element having a bottom side and a top side , the bottom side being placeable on the patient (P) and the top side being adapted for receiving the catheter ,