mhurhangee/ep-ind-claims huggingface dataset:
A compound of Formula IV: wherein R 6 and R 7 are each independently selected from -H, -OMe; R is selected from: wherein, R 13 is -OH; R 14 is selected from -OMe, -OH; R 15 is selected from -OMe, -OH; R 16 is -H; R 17 is -CH 3; R 11 and R 12 are each independently selected from -H, or R 11 and R 12 together form lactone, or -C OC 2 H 5; and wherein the compound is selected from: wherein R 6 and R 7 are each independently selected from -H, -OMe; R is selected from: wherein, R 13 is -OH; R 14 is selected from -OMe, -OH; R 15 is selected from -OMe, -OH; R 16 is -H; R 17 is -CH 3; R 11 and R 12 are each independently selected from -H, or R 11 and R 12 together form lactone, or -C OC 2 H 5; and wherein the compound is selected from:
A metallic hollow columnar member with a polygonal cross-section having at least five vertices and sides extending between the vertices the polygonal cross-section is divided by two vertices (A, B) with small inside angles into two perimeter segments with a perimeter comprising one or more sides characterized in that: the at least one of the two perimeter segments containing at least four sides, the respective inside angles of at least three vertices (V(i) (i=1, 2, 3,...)) included in the perimeter segment which includes the at least four sides are equal to or less than 180 degrees, a distance (SS(i) (i=1, 2, 3,...)) between each of the at least three vertices (V(i) (i=1, 2, 3,...)) and a straight line connecting the two vertices (A, B) is shorter than 1/2 of a distance between the two vertices (A, B), the inside angle of a vertex with the smallest inside angle among the at least three vertices (V(i)) is larger than the inside angles of the two vertices (A, B), and vertices are present on the perimeter segment including the at least four sides, respectively between the vertex with the smallest inside angle among the at least three vertices (V(i)) and one of the two vertices (A, B), and between the vertex with the smallest inside angle and the other of the two vertices (A, B), said vertices having inside angles larger than the inside angle of the vertex with the smallest inside angle.
Device for limiting movement in quadrupeds with front and hind legs, in particular in dogs, with at least one inflatable balloon (12, 13, 14, 15), a gas cartridge connected to the at least one balloon (12, 13, 14, 15) for inflating the at least one balloon (12, 13, 14, 15) and a belt for attaching the at least one balloon (12, 13, 14, 15) to the quadruped, characterized in that the belt is designed in such a way that the at least one balloon (12, 13, 14, 15) is disposed on the lower side of the quadruped in a balloon area, which is provided behind the forelegs and in front of the hind legs and projects at least partially into a running area during a running movement of the front and/or hind legs when the at least one balloon (12, 13, 14, 15) is in an inflated state.
Removable storage device including: - a processor, - a rewritable (flash) non-volatile semiconductor memory connected to the processor, - a connector to the Universal Serial Bus standard, connected to the processor, - a wireless communication interface connected to the processor, this device being characterized in that the processor is programmed to: - detect the reading, by a device without a wireless communication interface, of incomplete media content stored in the memory, - establish a connection to a remote gateway via the wireless communication interface; - download additional media content via the gateway, - record in the memory the additional content thus downloaded. - a processor, - a rewritable (flash) non-volatile semiconductor memory connected to the processor, - a connector to the Universal Serial Bus standard, connected to the processor, - a wireless communication interface connected to the processor, - detect the reading, by a device without a wireless communication interface, of incomplete media content stored in the memory, - establish a connection to a remote gateway via the wireless communication interface; - download additional media content via the gateway, - record in the memory the additional content thus downloaded.
Motor control apparatus for a three-phase brushless DC motor, the motor control apparatus comprising - a power converter which has an electrical half-bridge (3.1, 3.2, 3.3) having two electronic switches (H1, H2, H3, L1, L2, L3) for each phase of the brushless DC motor, and - an application-specific integrated circuit for actuating the electronic switches (H1, H2, H3, L1, L2, L3) of the power converter, wherein - the application-specific integrated circuit can be controlled by a programmable control unit in a normal mode, has a first interface for receiving an error signal signalling a malfunction and is designed to change the power converter to a defined final operating state (High_Z) independently of the programmable control unit after receiving the error signal, characterized in that the application-specific integrated circuit has a braking bit register for setting a braking bit (AAD_Brake) and a counting register for storing a count value (AAD_Step_cnt) for commutations which change the switching state of the power converter and is designed, if the braking bit (AAD_Brake) is set when the error signal is received, to immediately change the power converter to the final operating state (High_Z) if the count value (AAD_Step_cnt) is greater than zero and, before changing the power converter to the final operating state (High_Z), to change the power converter to a braking mode for braking the brushless DC motor for a defined braking period if the count value (AAD_Step_cnt) is zero. - a power converter which has an electrical half-bridge (3.1, 3.2, 3.3) having two electronic switches (H1, H2, H3, L1, L2, L3) for each phase of the brushless DC motor, and - an application-specific integrated circuit for actuating the electronic switches (H1, H2, H3, L1, L2, L3) of the power converter, wherein - the application-specific integrated circuit can be controlled by a programmable control unit in a normal mode, has a first interface for receiving an error signal signalling a malfunction and is designed to change the power converter to a defined final operating state (High_Z) independently of the programmable control unit after receiving the error signal, characterized in that the application-specific integrated circuit has a braking bit register for setting a braking bit (AAD_Brake) and a counting register for storing a count value (AAD_Step_cnt) for commutations which change the switching state of the power converter and is designed, if the braking bit (AAD_Brake) is set when the error signal is received, to immediately change the power converter to the final operating state (High_Z) if the count value (AAD_Step_cnt) is greater than zero and, before changing the power converter to the final operating state (High_Z), to change the power converter to a braking mode for braking the brushless DC motor for a defined braking period if the count value (AAD_Step_cnt) is zero.
A semiconductor die, comprising: a receive connector, proximate to a surface of the semiconductor die, configured to mechanically and electrically couple to one or more first inter-component connectors (114, 160), thereby defining a receive variable complex impedance between the receive connector and the one or more first inter-component connectors (114, 160), wherein the one or more first inter-component connectors (114, 160) include a microspring or an anisotropic film and the receive variable complex impedance corresponds to a first resistor having a first resistance in parallel with a first capacitor having a first capacitance; and a receive circuit (210, 700, 800), electrically coupled to the receive connector, to receive an electrical signal, wherein the receive circuit (210, 700, 800) is configured to mitigate signal distortion associated with the receive variable complex impedance, a time constant given by a product of the first resistance of the first resistor and the first capacitance of the first capacitor, being matched to the time constant of an RC circuit in the receive circuit (210, 700, 800), being formed from the product of the value of a biasing resistor and the sum of the parasitic capacitance of an electrostatic discharge component and the input capacitance of an amplifier of the receive circuit, wherein the electrostatic discharge component (212-1, 310-1, 418) is electrically coupled to the receive connector in parallel with the receive circuit (210, 700, 800). a receive connector, proximate to a surface of the semiconductor die, configured to mechanically and electrically couple to one or more first inter-component connectors (114, 160), thereby defining a receive variable complex impedance between the receive connector and the one or more first inter-component connectors (114, 160), wherein the one or more first inter-component connectors (114, 160) include a microspring or an anisotropic film and the receive variable complex impedance corresponds to a first resistor having a first resistance in parallel with a first capacitor having a first capacitance; and a receive circuit (210, 700, 800), electrically coupled to the receive connector, to receive an electrical signal, wherein the receive circuit (210, 700, 800) is configured to mitigate signal distortion associated with the receive variable complex impedance, a time constant given by a product of the first resistance of the first resistor and the first capacitance of the first capacitor, being matched to the time constant of an RC circuit in the receive circuit (210, 700, 800), being formed from the product of the value of a biasing resistor and the sum of the parasitic capacitance of an electrostatic discharge component and the input capacitance of an amplifier of the receive circuit, wherein the electrostatic discharge component (212-1, 310-1, 418) is electrically coupled to the receive connector in parallel with the receive circuit (210, 700, 800).
A computing device, comprising: a first portion (102) of the computing device that is moveable relative to a second portion (102) of the computing device; multiple nested leaf springs positioned to receive forces between the first portion (102) and the second portion (102), individual leaf springs extending from a first end associated with a first loop to a second end associated with a second loop, and the first and second ends (308, 310) not being secured to either the first portion (102) or the second portion (102) to receive the forces; and a contact structure linked to the second portion (102), the contact structure configured to move along a stroke between the first loop and the second loop to transfer the forces, wherein the multiple nested leaf springs are positioned in the first portion (102). a first portion (102) of the computing device that is moveable relative to a second portion (102) of the computing device; multiple nested leaf springs positioned to receive forces between the first portion (102) and the second portion (102), individual leaf springs extending from a first end associated with a first loop to a second end associated with a second loop, and the first and second ends (308, 310) not being secured to either the first portion (102) or the second portion (102) to receive the forces; and a contact structure linked to the second portion (102), the contact structure configured to move along a stroke between the first loop and the second loop to transfer the forces, wherein the multiple nested leaf springs are positioned in the first portion (102).
A sample analysis cartridge comprising: an inlet chamber configured to receive a biological sample; and a conduit fluidically connected to the inlet chamber and configured to receive the biological sample from the inlet chamber, the conduit comprising: a micro-environment prothrombin time sensor; and a micro-environment activated partial thromboplastin time (aPTT) sensor; wherein the micro-environment PT sensor and the micro-environment aPTT sensor each comprises an immobilized substrate-polymer layer, and reagents integrated or dispensed on top thereof or adjacent thereto; wherein the micro-environment PT sensor comprises PT diagnostic reagents, comprising at least one reagent for inducing extrinsic coagulation pathway in the biological sample, and wherein the micro-environment activated aPTT sensor comprises aPTT diagnostic reagents, comprising at least one reagent for inducing intrinsic coagulation pathway in the biological sample. an inlet chamber configured to receive a biological sample; and a conduit fluidically connected to the inlet chamber and configured to receive the biological sample from the inlet chamber, the conduit comprising: a micro-environment prothrombin time sensor; and a micro-environment activated partial thromboplastin time (aPTT) sensor; a micro-environment prothrombin time sensor; and a micro-environment activated partial thromboplastin time (aPTT) sensor;
Method for regenerating a particulate filter of an internal combustion engine comprising at least one cylinder, an inlet line admitting fresh air into the cylinder, an exhaust line expelling burnt gases from the cylinder and equipped with the said particulate filter, and an exhaust gas recirculation line (40, 50) equipped with a regulating valve (41, 51) for regulating the flow of burnt gases tapped off the said exhaust line and reintroduced into the said inlet line, which method provides: a) an acquisition step of acquiring a value of at least one parameter (R, C) characteristic of the operation of the internal combustion engine, b) a comparison step of comparing each value (R, C) acquired in step a) with at least one corresponding threshold value (VR, VC), and c) a control step of moving the said regulating valve (41, 51) into the open or closed position according to the result of the comparison in step b), characterized in that, in step c), the regulating valve (41, 51) is operated so that it has a degree of opening (Tx) that is either zero or equal to a non-zero constant which is invariable and predetermined in such a way that it does not vary from one regeneration phase to another. a) an acquisition step of acquiring a value of at least one parameter (R, C) characteristic of the operation of the internal combustion engine, b) a comparison step of comparing each value (R, C) acquired in step a) with at least one corresponding threshold value (VR, VC), and c) a control step of moving the said regulating valve (41, 51) into the open or closed position according to the result of the comparison in step b),
A centrifugal clutch comprising: a clutch drum having an inner space; a monoblock inner rotor positioned within the inner space of the clutch drum; the monoblock inner rotor having a plurality of integral centrifugal weights defined by cuts in the monoblock inner rotor, each of the plurality of centrifugal weights being connected to a central portion of the monoblock inner rotor by a connecting bridge, characterized in that, the plurality of integral centrifugal weights being pre-tensioned by compression towards the central portion of the monoblock inner rotor. a clutch drum having an inner space; a monoblock inner rotor positioned within the inner space of the clutch drum; the monoblock inner rotor having a plurality of integral centrifugal weights defined by cuts in the monoblock inner rotor, each of the plurality of centrifugal weights being connected to a central portion of the monoblock inner rotor by a connecting bridge, characterized in that, the plurality of integral centrifugal weights being pre-tensioned by compression towards the central portion of the monoblock inner rotor.
Modular sheet-pile plate-element, comprising: - two exterior plate-surfaces (20, 30) lying mutually opposed along a thickness axis of the sheet-pile plate-element, - two first plate sides (21, 31) lying mutually opposed along a first plate-longitudinal-axis of the sheet-pile plate-element, and - two second plate sides (22, 32) lying mutually opposed along a second plate-longitudinal-axis of the sheet-pile plate-element, wherein one of the first plate sides is provided with a tongue, and the other of the first plate sides is provided with a groove, in such manner that between a first specimen of the sheet-pile plate-element and a second specimen of the sheet-pile plate-element a tongued-and-grooved joint can be established by interlocking of the tongue of the first specimen with the groove of the second specimen, wherein the tongue, as seen at different positions along the second plate-longitudinal-axis, has at least one thick tongue part with gripping parts and at least one thin tongue part, wherein the thick tongue part, measured along said thickness axis, has higher thickness than the thin tongue part, wherein during said interlocking the first specimen and the second specimen of the sheet-pile plate-element are reciprocally movable relative to one another, with at least respective movement components being parallel to the respective second plate-longitudinal-axes of the first specimen and the second specimen, respectively, between at least one temporary interlocking condition and at least one permanent interlocking condition, characterized in that the groove, as seen at different positions along the second plate-longitudinal-axis, has at least one wide groove part and at least one narrow groove part, wherein the wide groove part, measured along said thickness axis, has higher width than the narrow groove part, and wherein in the permanent interlocking condition said gripping parts of the at least one thick tongue part are restrained by the at least one narrow groove part, while said gripping parts in the temporary interlocking condition are not, or to a lesser extent, restrained by the at least one narrow groove part in that said gripping parts in the temporary interlocking condition are located at least partly in the at least one wide groove part. - two exterior plate-surfaces (20, 30) lying mutually opposed along a thickness axis of the sheet-pile plate-element, - two first plate sides (21, 31) lying mutually opposed along a first plate-longitudinal-axis of the sheet-pile plate-element, and - two second plate sides (22, 32) lying mutually opposed along a second plate-longitudinal-axis of the sheet-pile plate-element,
A method performed in a radio network node for enabling a user equipment to access a radio communications network, wherein the user equipment is located in an area of the radio communications network, the method comprising the steps of - broadcasting two or more sets of access related system information, Al, and information about a mapping of each set of access related system information to a different system signature, wherein said access related system information, Al, comprises system information parameters for requesting access to the radio communications network and constitutes a part of a total amount of system information; - transmitting a system signature to the user equipment; - receiving a request from the user equipment to access the radio communications network, the access request being based on the set of access-related system information indicated by the transmitted system signature by said mapping; - after access by the user equipment to the radio communications network, transmitting, to the user equipment, other system information, different from the set of access-related system information used by the user equipment to request access to the radio communications network. - broadcasting two or more sets of access related system information, Al, and information about a mapping of each set of access related system information to a different system signature, wherein said access related system information, Al, comprises system information parameters for requesting access to the radio communications network and constitutes a part of a total amount of system information; - transmitting a system signature to the user equipment; - receiving a request from the user equipment to access the radio communications network, the access request being based on the set of access-related system information indicated by the transmitted system signature by said mapping; - after access by the user equipment to the radio communications network, transmitting, to the user equipment, other system information, different from the set of access-related system information used by the user equipment to request access to the radio communications network.
An optical wavefront analyser comprising an array of convergent microlenses ( μ L) for subdividing an incident wavefront into multiple beams and for creating a respective focal point for each beam, and an array of light-sensitive detectors placed behind the array of microlenses to detect the position of these focal points, characterised in that the array of microlenses is formed from a liquid crystal layer operating by transmission and provided with a matrix of electrodes defining liquid crystal pixels, the refractive index of which can be controlled by a voltage individually applied to each electrode, in that each convergent microlens comprises a subset of pixels grouped into a region forming the microlens, the pixels of a subset having indices that radially vary in a monotone manner by moving away from a central point of the region up to the edges of the region so that the microlens operates in refractive mode.
A synaptic vesicle 2a binding chemical entity for use in the prevention and/or treatment of sepsis induced acute brain dysfunction (SiBD), wherein the synaptic vesicle 2a binding chemical entity is levetiracetam, brivaracetam or selectracetam.
A method to decode communication data, converting complex data representative of constellation points of a modulated signal into scalar data representation by multiplexing real and imaginary parts of the complex data into one sequence of scalar values, folding a first portion of the scalar data representation onto a second portion of the scalar data representation by applying an absolute value function, estimating a constellation gain value from the folded first portion and the second portion of the scalar data representation, and applying a correction factor to the estimated constellation gain value to compensate for bias in non-uniform distribution of data about the constellation points, wherein: the constellation gain value is used for quantifying channel parameters; the method being further characterized by: the correction factor being equal to N/(N+C), where N is the total number of the constellation points and C is the number of the absolute scalar values that exceed a' which is the estimated constellation gain value before being compensated for the bias. the constellation gain value is used for quantifying channel parameters; the method being further characterized by: the correction factor being equal to N/(N+C), where N is the total number of the constellation points and C is the number of the absolute scalar values that exceed a' which is the estimated constellation gain value before being compensated for the bias. the correction factor being equal to N/(N+C), where N is the total number of the constellation points and C is the number of the absolute scalar values that exceed a' which is the estimated constellation gain value before being compensated for the bias.
A diagnostically useful carrier comprising a means for capturing Neurogranin and a means for capturing BACE1, wherein the means for capturing BACE1 is an antibody or aptamer and the means for capturing Neurogranin is an antibody or aptamer binding to a C-terminally truncated fragment of Neurogranin that comprises at least SEQ ID NO 4, but lacks the three C-terminal residues of full-length Neurogranin, namely S76, G77 and D78.