mhurhangee/ep-ind-claims huggingface dataset:
A method for classification of motion of a moving target comprising steps of: - creating different motion-specific models using Hidden Markov Model for all the motions desired to be classified; obtaining a database which includes the created different motion models; - detecting a target by a pulsed radar; - determining the range cell of the detected target within a coherent processing interval; - storing signals received, at each pulse within a coherent processing interval, from the target within said range cell; - finding feature vectors, at a certain frequency, from a continuous signal obtained by processing the stored signals and adding them together; - generating a feature vector time series by arranging the found feature vectors in succession; - comparing the generated feature vector time series to the Hidden Markov Model-based motion models in the database so as to calculate its probability for each motion model that is present in the database; - selecting the motion determined by the motion model with the highest calculated probability as the motion of the target; characterized in that the step of finding feature vectors of the target within the range cell comprises the steps of - generating a continuous signal having a constant pulse repetition frequency by consecutively adding the pulses received by pulsed radar with constant pulse repetition at successive coherent processing intervals, - receiving a signal at a certain window length at periodic intervals from the generated signal, - finding a feature vector by multiplying the received signal by a transformation matrix. - creating different motion-specific models using Hidden Markov Model for all the motions desired to be classified; obtaining a database which includes the created different motion models; - detecting a target by a pulsed radar; - determining the range cell of the detected target within a coherent processing interval; - storing signals received, at each pulse within a coherent processing interval, from the target within said range cell; - finding feature vectors, at a certain frequency, from a continuous signal obtained by processing the stored signals and adding them together; - generating a feature vector time series by arranging the found feature vectors in succession; - comparing the generated feature vector time series to the Hidden Markov Model-based motion models in the database so as to calculate its probability for each motion model that is present in the database; - selecting the motion determined by the motion model with the highest calculated probability as the motion of the target; - generating a continuous signal having a constant pulse repetition frequency by consecutively adding the pulses received by pulsed radar with constant pulse repetition at successive coherent processing intervals, - receiving a signal at a certain window length at periodic intervals from the generated signal, - finding a feature vector by multiplying the received signal by a transformation matrix.
A method of wireless communication performed by a wireless communication device, comprising: receiving one or more radio link control, RLC, packet data units, PDUs (510, 512), of a sequence of RLC PDUs (510, 512); determining missing RLC PDUs (510, 512) in the sequence of RLC PDUs (510, 512) based on the received one or more RLC PDUs (510, 512); receiving a first uplink, UL, grant; transmitting a communication signal including a buffer status report, BSR, and a first RLC status report including an indication of a first subset of the missing RLC PDUs (510, 512) less than all the missing RLC PDUs (510, 512), the indication of the first subset of missing RLC PDUs (510, 512) being based on a size of the first UL grant, the BSR being based on a RLC status report size for indicating all the missing RLC PDUs (510, 512) in the sequence of RLC PDUs (510, 512); and modifying a RLC status prohibit timer based on the transmitted first RLC status report indicating less than all the missing RLC PDUs (510, 512). receiving one or more radio link control, RLC, packet data units, PDUs (510, 512), of a sequence of RLC PDUs (510, 512); determining missing RLC PDUs (510, 512) in the sequence of RLC PDUs (510, 512) based on the received one or more RLC PDUs (510, 512); receiving a first uplink, UL, grant; transmitting a communication signal including a buffer status report, BSR, and a first RLC status report including an indication of a first subset of the missing RLC PDUs (510, 512) less than all the missing RLC PDUs (510, 512), the indication of the first subset of missing RLC PDUs (510, 512) being based on a size of the first UL grant, the BSR being based on a RLC status report size for indicating all the missing RLC PDUs (510, 512) in the sequence of RLC PDUs (510, 512); and modifying a RLC status prohibit timer based on the transmitted first RLC status report indicating less than all the missing RLC PDUs (510, 512).
A vegetation cutting device comprising: a cutting head having a fan housing enclosing a fan and a spool housing adapted to hold a spool with a line for cutting vegetation; wherein one of the fan or the spool housing is selectively engageable with a drive shaft of a motor, and the other of the fan or spool housing is fixedly connected to the drive shaft; wherein the vegetation cutting device has a first mode of operation where the motor rotates in a first direction and both the fan and spool housing are rotated, and characterised by a second mode of operation where only the fan is rotated, wherein the first mode is a cutting mode and the second mode is a blowing only mode. a cutting head having a fan housing enclosing a fan and a spool housing adapted to hold a spool with a line for cutting vegetation; wherein one of the fan or the spool housing is selectively engageable with a drive shaft of a motor, and the other of the fan or spool housing is fixedly connected to the drive shaft; wherein the vegetation cutting device has a first mode of operation where the motor rotates in a first direction and both the fan and spool housing are rotated, and characterised by a second mode of operation where only the fan is rotated, wherein the first mode is a cutting mode and the second mode is a blowing only mode.
A composition comprising a polymer nanoparticle and at least one organic, neutral, non-ionic compound associated with the polymer nanoparticle, wherein the polymer nanoparticle is less than 100 nm in diameter, and the polymer nanoparticle comprises a collapsed, water-soluble polyelectrolyte, wherein each of the collapsed, water-soluble polyelectrolytes is a random-copolymer, has a molecular weight of at least 100,000 Daltons, and is cross-linked; wherein the organic, neutral, non-ionic compound is selected from the group consisting of dyes, pigments, colorants, oils, UV-light absorbing molecules, fragrances, flavoring molecules, preservatives, electro-conductive compounds, thermoplastic compounds, adhesion promoters, penetration enhancers, anti-corrosive agents, and combinations thereof; and wherein the polymer nanoparticle diameter is measured by dynamic light scattering.
Extensible structure of the type comprising independent extensible elements and guiding means comprising, on the one hand, a box capable of receiving the extensible elements according to a stacked arrangement and, on the other hand, a guide ending into the box and which is adapted for receiving the extensible elements in a juxtaposed position, the extensible elements comprising mutual hooking means on their edges transverse to the direction of displacement of the extensible elements in the guide, it also comprises, on the one hand, means (150; 260) capable of preventing a relative movement between the hooking means of two adjacent extensible elements when the latter are positioned outside the box, regardless of the direction of displacement of the extensible elements in the guide and, on the other hand, guiding elements (160, 162) adapted for imposing to the extensible elements in the box a displacement in a direction having a component transverse to the longitudinal direction of the guide, wherein said guiding elements are formed of complementary guiding means (160, 162; 252, 254) provided for on the flanks of the box and on the flanks facing the blades, respectively.
Property determining apparatus for determining a property of a biological object, wherein the property determining apparatus comprises: - an ultrasound signal providing unit for providing an ultrasound signal produced by - sending an ultrasound pulse out to the object, - receiving echo series from the object, and - generating the ultrasound signal depending on the received echo series, wherein the property determining apparatus further comprises: - a scatter determination unit for determining at least one scatter value being indicative of a scatter of the ultrasound pulse by a fluid being blood perfusing the object, wherein the scatter determination unit is adapted to determine the at least one scatter value depending on the ultrasound signal, - a property determination unit for determining a property of the object, which is related to the fluid perfusion of the object, depending on the at least one scatter value, wherein the biological object comprises tissue and characterized in that the property determination unit is adapted to determine whether a part of the tissue comprises ablated tissue or non-ablated tissue based on the at least one scatter value as the property of the object. - an ultrasound signal providing unit for providing an ultrasound signal produced by - sending an ultrasound pulse out to the object, - receiving echo series from the object, and - generating the ultrasound signal depending on the received echo series, - sending an ultrasound pulse out to the object, - receiving echo series from the object, and - generating the ultrasound signal depending on the received echo series, - a scatter determination unit for determining at least one scatter value being indicative of a scatter of the ultrasound pulse by a fluid being blood perfusing the object, wherein the scatter determination unit is adapted to determine the at least one scatter value depending on the ultrasound signal, - a property determination unit for determining a property of the object, which is related to the fluid perfusion of the object, depending on the at least one scatter value, wherein the biological object comprises tissue and characterized in that the property determination unit is adapted to determine whether a part of the tissue comprises ablated tissue or non-ablated tissue based on the at least one scatter value as the property of the object.
Migalastat or salt thereof for use in a method of reducing kidney globotriaosylceramide (GL-3) in a patient having classic Fabry disease, the method comprising administering to the patient an effective amount of migalastat or salt thereof at a frequency of once every other day for reducing the patient's kidney GL-3, wherein the effective amount is 100 mg to 150 mg free base equivalent.
An anonymization method for communicating data in an IP communication network, from a sender having a plurality of network interfaces to a receiver possessing at least one IP address, the method comprising the steps of: - transmitting, by the plurality of network interfaces, fragments of the IP address of the receiver to a plurality of servers, called second-level servers, according to a first shared secret mechanism; - transmitting, by each second-level server, the received IP address fragment to a single server called master server, said master server being able to reconstruct the IP address of the receiver; - transmitting, by the plurality of network interfaces, data fragments of a data packet, to a plurality of servers called first-level servers, according to a second shared secret mechanism; - transmitting, by each first-level server, the received data fragment to a second-level server from among the plurality of second-level servers; - transmitting, by each second-level server, the received data fragment to the master server, the master server being able to reconstruct the data packet from all the received data fragments; and - transmitting, from the master server, the data packet to the receiver. - transmitting, by the plurality of network interfaces, fragments of the IP address of the receiver to a plurality of servers, called second-level servers, according to a first shared secret mechanism; - transmitting, by each second-level server, the received IP address fragment to a single server called master server, said master server being able to reconstruct the IP address of the receiver; - transmitting, by the plurality of network interfaces, data fragments of a data packet, to a plurality of servers called first-level servers, according to a second shared secret mechanism; - transmitting, by each first-level server, the received data fragment to a second-level server from among the plurality of second-level servers; - transmitting, by each second-level server, the received data fragment to the master server, the master server being able to reconstruct the data packet from all the received data fragments; and - transmitting, from the master server, the data packet to the receiver.
A camera module, comprising; a lens barrel comprising at least one lens; and a lens holder coupled to the lens barrel, wherein the lens barrel is formed with a first adhesive portion attached to the lens holder, wherein the lens holder is formed with a second adhesive portion attached to the lens barrel, and wherein the second adhesive portion is formed with a first recess, to which at least a portion of an adhesive is applied, wherein the second adhesive portion is formed with a first protrusion, and the first protrusion is spaced apart from the first recess in a direction orthogonal to a first direction parallel to an optical axis of the lens and protrudes in the first direction; and the first protrusion is spaced apart from an inner circumference of the second adhesive portion by a predetermined distance, wherein the first adhesive portion is formed in an inner area thereof with a second recess, wherein the first protrusion and the second recess are provided so as to face each other in the first direction, wherein the first recess is disposed between an outer surface that is present outside of the first recess and an inner surface that is present inside of the first recess, wherein the first protrusion is formed on the inner surface and is provided in a ring shape along a circumferential direction of the second adhesive portion, the camera module further comprising an image sensor, wherein a height of the first protrusion is smaller than a tolerance corresponding to a distance between a top surface of the image sensor and an upper end of the lens. a lens barrel comprising at least one lens; and a lens holder coupled to the lens barrel, wherein the lens barrel is formed with a first adhesive portion attached to the lens holder, wherein the lens holder is formed with a second adhesive portion attached to the lens barrel, and wherein the second adhesive portion is formed with a first recess, to which at least a portion of an adhesive is applied, wherein the second adhesive portion is formed with a first protrusion, and the first protrusion is spaced apart from the first recess in a direction orthogonal to a first direction parallel to an optical axis of the lens and protrudes in the first direction; and the first protrusion is spaced apart from an inner circumference of the second adhesive portion by a predetermined distance, wherein the first adhesive portion is formed in an inner area thereof with a second recess, wherein the first protrusion and the second recess are provided so as to face each other in the first direction, wherein the first recess is disposed between an outer surface that is present outside of the first recess and an inner surface that is present inside of the first recess, wherein the first protrusion is formed on the inner surface and is provided in a ring shape along a circumferential direction of the second adhesive portion, the camera module further comprising an image sensor, wherein a height of the first protrusion is smaller than a tolerance corresponding to a distance between a top surface of the image sensor and an upper end of the lens.
Floor for a rail vehicle, consisting of a four-layer structure comprising a first metal layer, a filling layer, a second metal layer and a wear layer, which are bonded undetachably to one another, wherein the first metal layer and the second metal layer are produced from an aluminium alloy and the filling layer is produced from a composite material with a cork content, wherein the floor is produced in a single piece and is suitable for covering the entire floor of the passenger space of a rail vehicle.
Spinach plant which is resistant to Peronospora farinosa, characterized in that the plant has a reduced level, reduced activity or complete absence of DMR6 protein as compared to the plant that is not resistant to the said pathogen wherein said plant has a mutation in its DMR6 gene resulting in a DMR6 protein with reduced enzymatic activity as compared to the DMR6 protein encoded by the wild-type DMR6 gene wherein no such mutation is present; or said plant has a mutation in its DMR6 gene resulting in a reduced DMR6 expression as compared to the wild-type DMR6 gene wherein no such mutation is present.
A delivery apparatus, comprising: a handle; a first shaft extending from the handle and having a proximal end portion coupled to the handle and a distal end portion; a second shaft extending coaxially over the first shaft and having a proximal end portion coupled to the handle and a distal end portion; a shoulder coupled to the distal end portion of the second shaft and having a flared end portion configured to abut a prosthetic valve positioned around the first shaft in a radially compressed state; an extension portion extending distally from the shoulder; and at least one radiopaque marker disposed on the extension portion at a location within the prosthetic valve when the prosthetic valve is in a radially compressed configuration on the first shaft. a handle; a first shaft extending from the handle and having a proximal end portion coupled to the handle and a distal end portion; a second shaft extending coaxially over the first shaft and having a proximal end portion coupled to the handle and a distal end portion; a shoulder coupled to the distal end portion of the second shaft and having a flared end portion configured to abut a prosthetic valve positioned around the first shaft in a radially compressed state; an extension portion extending distally from the shoulder; and at least one radiopaque marker disposed on the extension portion at a location within the prosthetic valve when the prosthetic valve is in a radially compressed configuration on the first shaft.
An electrolyte for use in a secondary static zinc bromine electrochemical cell comprising: from 30 wt% to 40 wt% of ZnBr 2; from 5 wt% to 15 wt% of KBr; from 5 wt% to 15 wt% of KCl; from 0.5 wt% to 2.5 wt% of DME-PEG; and one or more quaternary ammonium agents, comprising an agent having the formula wherein R 1, R 2, R 3,and R 4 are each independently hydrogen or an alkyl group, and Y is chloride or bromide, and wherein the electrolyte comprises from 0.5 wt.% to 10 wt.% of the one or more quaternary ammonium agents. from 30 wt% to 40 wt% of ZnBr 2; from 5 wt% to 15 wt% of KBr; from 5 wt% to 15 wt% of KCl; from 0.5 wt% to 2.5 wt% of DME-PEG; and one or more quaternary ammonium agents, comprising an agent having the formula wherein R 1, R 2, R 3,and R 4 are each independently hydrogen or an alkyl group, and Y is chloride or bromide, and wherein the electrolyte comprises from 0.5 wt.% to 10 wt.% of the one or more quaternary ammonium agents.
A method for operating a cooling device (10, 23, 30, 36, 43), a temperature of at least -80 °C or lower being established at the heat exchanger by means of the cooling device having a cooling circuit (11, 24, 39, 44) comprising a refrigerant, a heat exchanger (12, 25, 47), an internal heat exchanger (19, 29, 46), a compressor (13, 26), a condenser (14, 27, 38) and a controllable expansion element (15, 25, 28) of the cooling device, the cooling device being realized as a compression refrigerating system, the refrigerant undergoing a phase transition in the heat exchanger, the refrigerant of a high-pressure side of the cooling circuit being cooled by means of the internal heat exchanger, the cooling of the refrigerant of the high-pressure side by means of the internal heat exchanger being used to reduce an evaporation temperature at the expansion element, a zeotropic refrigerant being used as refrigerant, the refrigerant being nonflammable and having a relative CO2 equivalent of < 2500 over 100 years, characterized in that the cooling device is operated either having the refrigerant in a liquid and vaporous phase in a first operating state, in which the carbon dioxide is, also during the expansion, only in the liquid phase, or in a second operating state as a sublimation refrigerating system having the refrigerant in a partially solid phase, in the second operating state, the expansion element being controlled by means of a control device of the cooling device in such a manner that the refrigerant partially freezes during an expansion at the expansion element.
A method of restricting allocations in a cache (22, 26), comprising: in a restricted mode, allowing only a predetermined set of instructions to allocate cache entries; and in a non-restricted mode, allowing any memory access instruction to allocate cache entries, characterized in that the predetermined set of instructions comprises locking cache allocation instructions wherein the cache is divided into two or more banks, and wherein restricted and non-restricted modes are separately applicable to each bank. in a restricted mode, allowing only a predetermined set of instructions to allocate cache entries; and in a non-restricted mode, allowing any memory access instruction to allocate cache entries, characterized in that the predetermined set of instructions comprises locking cache allocation instructions wherein the cache is divided into two or more banks, and wherein restricted and non-restricted modes are separately applicable to each bank.