mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a memory configured to store a plurality of efficacy maps; and a processor configured to: generate a volume of tissue activation (VTA) based on a therapy program; and characterized by the processor being further configured to select one of the plurality of efficacy maps based on a patient condition or a patient symptom, each efficacy map comprising a plurality of voxels each representing a discrete volume of tissue, each of the voxels being assigned a value indicative of the effect of activation of the respective tissue region, and determine, based on the selected efficacy map and the VTA, an efficacy score for the therapy program with respect to said patient condition or said patient symptom, the efficacy score determined based on a comparison of the VTA and the efficacy map. a memory configured to store a plurality of efficacy maps; and a processor configured to: generate a volume of tissue activation (VTA) based on a therapy program; and characterized by the processor being further configured to select one of the plurality of efficacy maps based on a patient condition or a patient symptom, each efficacy map comprising a plurality of voxels each representing a discrete volume of tissue, each of the voxels being assigned a value indicative of the effect of activation of the respective tissue region, and determine, based on the selected efficacy map and the VTA, an efficacy score for the therapy program with respect to said patient condition or said patient symptom, the efficacy score determined based on a comparison of the VTA and the efficacy map. generate a volume of tissue activation (VTA) based on a therapy program; and characterized by the processor being further configured to select one of the plurality of efficacy maps based on a patient condition or a patient symptom, each efficacy map comprising a plurality of voxels each representing a discrete volume of tissue, each of the voxels being assigned a value indicative of the effect of activation of the respective tissue region, and determine, based on the selected efficacy map and the VTA, an efficacy score for the therapy program with respect to said patient condition or said patient symptom, the efficacy score determined based on a comparison of the VTA and the efficacy map.
An optical module for a LED assembly , the optical module comprising a plurality of optical elements and a plurality of mounting structures , each mounting structure comprising a stepped arrangement of mounting elements (51-54), in which each mounting element (51-54) defines a step of the stepped arrangement, each step defining a different mounting height for the optical module , characterized in that each mounting structure is rotatable.
A lighting system comprising a plurality of electronic converters comprising a first (10 1 ) and one or more second (10 2 , 10 3 ) electronic converters and a plurality of lighting modules comprising a first (20 1 ) and one or more second (20 2 , 20 3 ) lighting modules, wherein the lighting system comprises: - switching means configured to connect said lighting modules to said electronic converters , characterized in that said switching means are configured to permit at least two switching states: - a first switching state, wherein said first lighting module (20 1 ) is connected to said first electronic converter (10 1 ) and a respective second lighting module (20 2 , 20 3 ) is connected to each second electronic converter (10 2 , 10 3 ), and - a second switching state, wherein said one or more second electronic converters (10 2 , 10 3 ) are disconnected from the plurality of lighting modules and said first (20 1 ) and said one or more second (20 2 , 20 3 ) lighting modules are connected to said first electronic converter (10 1 ); and wherein the lighting system comprises a control circuit configured for: - detecting one or more signals indicative of the supply powers requested by the lighting modules of said plurality of lighting modules , and - driving the switching of the switching means for activating said first or said second switching state as a function of said detected one or more signals. - switching means configured to connect said lighting modules to said electronic converters , - a first switching state, wherein said first lighting module (20 1 ) is connected to said first electronic converter (10 1 ) and a respective second lighting module (20 2 , 20 3 ) is connected to each second electronic converter (10 2 , 10 3 ), and - a second switching state, wherein said one or more second electronic converters (10 2 , 10 3 ) are disconnected from the plurality of lighting modules and said first (20 1 ) and said one or more second (20 2 , 20 3 ) lighting modules are connected to said first electronic converter (10 1 ); and - detecting one or more signals indicative of the supply powers requested by the lighting modules of said plurality of lighting modules , and - driving the switching of the switching means for activating said first or said second switching state as a function of said detected one or more signals.
A filter bank for an audio processing device, e.g. a hearing aid, the filter bank comprising • an analysis filter bank comprising a plurality of M first filters h m (n), where m=0, 1, ..., M-1 is a frequency band index, and whose impulse responses are modulated from a first linear phase prototype filter h(n) with a first predetermined modulation sequence ms1, n being a time index, the first linear phase prototype filter h(n) having a first filter length of L h ; • a synthesis filter bank comprising a plurality of M second filters g m (n), m=0, 1, ..., M-1, whose impulse responses are modulated from a second linear phase prototype filter g(n) with a second predetermined modulation sequence ms2, the second linear phase prototype filter g(n) having a second filter length of L g ; • the plurality of first and second filters being arranged in pairs, each pair forming a frequency channel, wherein • the first modulation sequence is a complex or real function of time n, frequency band index m, and a first prototype filter delay τ h , • the second modulation sequence is a complex or real function of time n, frequency band index m, and a second prototype filter delay τ g , • the first filter length L h and the second filter length L g are both uneven, and • the first prototype filter delay τ h is equal to (L h -1)/2 and second prototype filter delay τ g , is equal to (L g -1)/2, and the first and second prototype filter delay τ h and τ g , are constants of the analysis filter bank and the synthesis filter bank, respectively. • an analysis filter bank comprising a plurality of M first filters h m (n), where m=0, 1, ..., M-1 is a frequency band index, and whose impulse responses are modulated from a first linear phase prototype filter h(n) with a first predetermined modulation sequence ms1, n being a time index, the first linear phase prototype filter h(n) having a first filter length of L h ; • a synthesis filter bank comprising a plurality of M second filters g m (n), m=0, 1, ..., M-1, whose impulse responses are modulated from a second linear phase prototype filter g(n) with a second predetermined modulation sequence ms2, the second linear phase prototype filter g(n) having a second filter length of L g ; • the plurality of first and second filters being arranged in pairs, each pair forming a frequency channel, • the first modulation sequence is a complex or real function of time n, frequency band index m, and a first prototype filter delay τ h , • the second modulation sequence is a complex or real function of time n, frequency band index m, and a second prototype filter delay τ g , • the first filter length L h and the second filter length L g are both uneven, and • the first prototype filter delay τ h is equal to (L h -1)/2 and second prototype filter delay τ g , is equal to (L g -1)/2, and the first and second prototype filter delay τ h and τ g , are constants of the analysis filter bank and the synthesis filter bank, respectively.
A pop noise control system comprising: a detector block configured to detect impulsive components in an input sound signal (x(n)) based on a signal-to-noise ratio spectrum (SNR x (ω)) of the input signal (x(n)); and a masking block configured to generate a spectral pop noise removal mask (PnrMask(ω)) and to apply the spectral pop noise removal mask (PnrMask(ω)) to the input signal (x(n)) if impulsive components in the input signal (x(n)) are detected, the spectral pop noise removal mask (PnrMask(w)) being configured to suppress the impulsive components in the input signal (x(n)), when applied, characterized in that the masking block comprises a mask generation block configured to provide the spectral pop noise removal mask (PnrMask(ω)), the spectral pop noise removal mask (PnrMask(ω)) being dependent on the signal-to-noise ratio spectrum (SNR x (ω)) such that the spectral pop noise removal mask (PnrMask(ω)) is the p-norm of the difference between one and the signal-to-noise ratio spectrum (SNR x (ω)). a detector block configured to detect impulsive components in an input sound signal (x(n)) based on a signal-to-noise ratio spectrum (SNR x (ω)) of the input signal (x(n)); and a masking block configured to generate a spectral pop noise removal mask (PnrMask(ω)) and to apply the spectral pop noise removal mask (PnrMask(ω)) to the input signal (x(n)) if impulsive components in the input signal (x(n)) are detected, the spectral pop noise removal mask (PnrMask(w)) being configured to suppress the impulsive components in the input signal (x(n)), when applied, characterized in that the masking block comprises a mask generation block configured to provide the spectral pop noise removal mask (PnrMask(ω)), the spectral pop noise removal mask (PnrMask(ω)) being dependent on the signal-to-noise ratio spectrum (SNR x (ω)) such that the spectral pop noise removal mask (PnrMask(ω)) is the p-norm of the difference between one and the signal-to-noise ratio spectrum (SNR x (ω)).
A fault detection system (130; 230) comprising: an AC/AC converter (110; 210) including a DC bus , the AC/AC converter structured to receive AC power and provide AC power; a DC bus sensor (136; V DC-bus ) structured to measure an electrical characteristic of the DC bus ; an input sensor (133; 233) structured to measure an electrical characteristic of the AC power received by the AC/AC converter (110; 210); an output sensor (135; 235) structured to measure the electrical characteristic of the AC power provided by the AC/AC converter (110; 210); characterized in that further comprising: a monitoring device (131; 231) configured to receive measurement information from the DC bus sensor (136; V DC-bus ), the input sensor (133; 233), the output sensor (135; 235), the monitoring device (131; 231) is configured to calculate a scaling factor using the received measurement from the DC bus sensor (136, V DC-bus ), to scale one of the measurement from the input sensor (133; 233) and the measurement from the output sensor (135; 235) using the scaling factor, and to determine the existence of a fault condition within the AC/AC converter using an evaluation of the scaled measurement relative to the unscaled measurement. an AC/AC converter (110; 210) including a DC bus , the AC/AC converter structured to receive AC power and provide AC power; a DC bus sensor (136; V DC-bus ) structured to measure an electrical characteristic of the DC bus ; an input sensor (133; 233) structured to measure an electrical characteristic of the AC power received by the AC/AC converter (110; 210); an output sensor (135; 235) structured to measure the electrical characteristic of the AC power provided by the AC/AC converter (110; 210); characterized in that further comprising: a monitoring device (131; 231) configured to receive measurement information from the DC bus sensor (136; V DC-bus ), the input sensor (133; 233), the output sensor (135; 235), the monitoring device (131; 231) is configured to calculate a scaling factor using the received measurement from the DC bus sensor (136, V DC-bus ), to scale one of the measurement from the input sensor (133; 233) and the measurement from the output sensor (135; 235) using the scaling factor, and to determine the existence of a fault condition within the AC/AC converter using an evaluation of the scaled measurement relative to the unscaled measurement.
Rotary laser , having: ▪ a device housing with a base housing , a rotary head and three or more handles (37; 81), the base housing comprising a bottom surface , a top surface opposite from the bottom surface and a side surface connecting the bottom and top surfaces , and the handles (37; 81) comprising a first sub-region (61; 87) with a handle element (45; 82), ▪ a measuring unit , which is arranged at least partially inside the device housing and which has a radiation source and an optical deflector rotating about an axis of rotation , the radiation source producing a laser beam that is deflected at the optical deflector and rotates about the axis of rotation in a laser plane, characterized in that the first sub-regions (61; 87) of the handles (37; 81) have lower shock absorbing elements (49; 86) at a lower end of the handles (37; 81) facing away from the rotary head and upper shock absorbing elements (48; 85) at an upper end of the handles (37; 81) facing the rotary head , the lower shock absorbing elements (49; 86) projecting relative to the bottom surface in an axial direction parallel to the axis of rotation and the upper shock absorbing elements (48; 85) being arranged in the axial direction parallel to the axis of rotation below the laser plane. ▪ a device housing with a base housing , a rotary head and three or more handles (37; 81), the base housing comprising a bottom surface , a top surface opposite from the bottom surface and a side surface connecting the bottom and top surfaces , and the handles (37; 81) comprising a first sub-region (61; 87) with a handle element (45; 82), ▪ a measuring unit , which is arranged at least partially inside the device housing and which has a radiation source and an optical deflector rotating about an axis of rotation , the radiation source producing a laser beam that is deflected at the optical deflector and rotates about the axis of rotation in a laser plane,
Specifically to an amyloid-beta-species binding peptide, consisting essentially of D-amino acids, containing at least one amino acid sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, 'SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO. 10 und/oder SEQ ID NO. 11 and their homologues with an identity of the amino acid sequence of at least 80%, the homologues having a Kd-value of from twice up to tenfold lower than the peptide with the amino acid sequence rprtrlhthrnr, and polymers of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO. 10, und/oder SEQ ID NO. 11 and their homologues , with an identity of the amino acid sequence of at least 80%, the homologues having a Kd-value of from twice up to tenfold lower than the peptide with the amino acid sequence rprtrlhthrnr.
An antibody that is capable of binding to interleukin 4 (IL-4) receptor (IL-4R), wherein the antibody comprises a light chain variable region (VL) comprising the amino acid sequence as shown in SEQ ID NO: 55, and comprises a heavy chain variable region (VH) comprising the amino acid sequence as shown in SEQ ID NO: 91.
A computer-implemented method for validating resiliency of a networked application, the method comprising: specifying a latency mode or an error mode; identifying a plurality of active application components within a network through which the networked application is provided; selecting a first active application component (102 ) from the plurality of active application components based on one or more selection criteria; altering all messages transmitted by the first active application component that request access to a specified uniform resource locator, URL, according to a predefined alteration rule, wherein when the latency mode is selected, the altering comprises delaying transmission of the messages, and when the error mode is selected, the altering comprises replacing each message with an error message; and monitoring a second active application component (102 ) included in the plurality of active application components to determine an effect on the second active application component caused by the altered messages. specifying a latency mode or an error mode; identifying a plurality of active application components within a network through which the networked application is provided; selecting a first active application component (102 ) from the plurality of active application components based on one or more selection criteria; altering all messages transmitted by the first active application component that request access to a specified uniform resource locator, URL, according to a predefined alteration rule, wherein when the latency mode is selected, the altering comprises delaying transmission of the messages, and when the error mode is selected, the altering comprises replacing each message with an error message; and monitoring a second active application component (102 ) included in the plurality of active application components to determine an effect on the second active application component caused by the altered messages.
A refrigerator comprising: a rear shelf that is located in an inner case that defines a storage compartment, such as a refrigerating compartment or a freezing compartment, with an open front; a front shelf that is located closer to the open front of the storage compartment than the rear shelf characterized in that the refrigerator further comprises: a guard that is rotatably connected to the front shelf , wherein the guard comprises a side guard that is located at a lateral surface of the front shelf and a front guard that is located at a front surface of the front shelf ; and a front shelf lifting device that is configured to rotate the front shelf down about an axis at the rear shelf based on the guard moving up, wherein the front shelf lifting device is configured to maintain an orientation of the front shelf during rotation, wherein the front shelf lifting device comprises a connection bar that is configured to connect the front shelf and the rear shelf , wherein the rear shelf includes a connection bar guide rail that is configured to guide a sliding movement of the connection bar towards a front of the refrigerator and towards a rear of the refrigerator, wherein the front shelf lifting device comprises an interlocking mechanism that is configured to rotate the connection bar in a first direction and that is configured to rotate the guard in a second direction that is opposite the first direction. a rear shelf that is located in an inner case that defines a storage compartment, such as a refrigerating compartment or a freezing compartment, with an open front; a front shelf that is located closer to the open front of the storage compartment than the rear shelf characterized in that the refrigerator further comprises: a guard that is rotatably connected to the front shelf , wherein the guard comprises a side guard that is located at a lateral surface of the front shelf and a front guard that is located at a front surface of the front shelf ; and a front shelf lifting device that is configured to rotate the front shelf down about an axis at the rear shelf based on the guard moving up, wherein the front shelf lifting device is configured to maintain an orientation of the front shelf during rotation, wherein the front shelf lifting device comprises a connection bar that is configured to connect the front shelf and the rear shelf , wherein the rear shelf includes a connection bar guide rail that is configured to guide a sliding movement of the connection bar towards a front of the refrigerator and towards a rear of the refrigerator, wherein the front shelf lifting device comprises an interlocking mechanism that is configured to rotate the connection bar in a first direction and that is configured to rotate the guard in a second direction that is opposite the first direction.
A control method for vehicle atmosphere lamps, characterized by comprising the steps of: acquiring (S1) driving information of a vehicle; and selecting (S2) an operating mode for the vehicle atmosphere lamps according to the driving information of the vehicle; characterised in that before, during or after the step (S1) of "acquiring driving information of a vehicle", the control method further comprises: acquiring (S301) an electric quantity of the vehicle; and turning or keeping off (S304) the vehicle atmosphere lamps if the electric quantity of the vehicle is less than a predetermined electric quantity. acquiring (S1) driving information of a vehicle; and selecting (S2) an operating mode for the vehicle atmosphere lamps according to the driving information of the vehicle; characterised in that before, during or after the step (S1) of "acquiring driving information of a vehicle", the control method further comprises: acquiring (S301) an electric quantity of the vehicle; and turning or keeping off (S304) the vehicle atmosphere lamps if the electric quantity of the vehicle is less than a predetermined electric quantity. acquiring (S301) an electric quantity of the vehicle; and turning or keeping off (S304) the vehicle atmosphere lamps if the electric quantity of the vehicle is less than a predetermined electric quantity.
A method being implemented at a processing device associated with a source of content items comprising: receiving a plurality of content rendering options supported by a client device, wherein each content rendering option comprises a software component or combination of software components that are capable of rendering a content item; determining a content item to be rendered, the content item being associated with a restriction attribute; selecting a content rendering option from the plurality of content rendering options supported by the client device in view of the restriction attribute; generating a token comprising data associated with the selected content rendering option and the content item; receiving a client request from the client device, wherein the client request is associated with the content item and indicates a chosen content rendering option; comparing the data of the token with the chosen content rendering option indicated by the client request to determine a match; and granting the client device access to perform the chosen content rendering option on the content item based on the outcome of the determination of the match. receiving a plurality of content rendering options supported by a client device, wherein each content rendering option comprises a software component or combination of software components that are capable of rendering a content item; determining a content item to be rendered, the content item being associated with a restriction attribute; selecting a content rendering option from the plurality of content rendering options supported by the client device in view of the restriction attribute; generating a token comprising data associated with the selected content rendering option and the content item; receiving a client request from the client device, wherein the client request is associated with the content item and indicates a chosen content rendering option; comparing the data of the token with the chosen content rendering option indicated by the client request to determine a match; and granting the client device access to perform the chosen content rendering option on the content item based on the outcome of the determination of the match.