mhurhangee/patent-ind-claim-en huggingface dataset:
A smoke barrier system comprising at least two brackets , a glass panel and fastener means , wherein the glass panel comprises at least two holes and wherein the fastener means is equipped to fasten the bracket to the hole of the glass panel , in particular wherein the fastener means are equipped to fasten a first bracket to a first hole of the glass panel and a second bracket to a second hole of the glass panel ; wherein the brackets are equipped to be fixed to a supporting construction on which the smoke barrier system is to be installed, wherein the smoke barrier system further comprises at least two first washer , wherein the washer is arranged between the fastener means and the glass panel ; characterized in that the washer is an intumescent washer , wherein the intumescent washer expands under thermal influence of a fire, hot smoke, and/or hot gas and forms a thermally insulating layer, wherein under thermal influence the intumescent washer build up additional pressure between the fastener means and the glass panel . wherein the intumescent washer expands under thermal influence of a fire, hot smoke, and/or hot gas and forms a thermally insulating layer, wherein under thermal influence the intumescent washer build up additional pressure between the fastener means and the glass panel .
A therapeutically effective amount of a histone deacetylase 6 (HDAC6) specific inhibitor compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein, ring B is aryl or heteroaryl; R 1 is an aryl or heteroaryl, each of which may be optionally substituted by OH, halo, or C 1-6 -alkyl; and R is H or C 1-6 -alkyl; for use in treating a polycystic disease. ring B is aryl or heteroaryl; R 1 is an aryl or heteroaryl, each of which may be optionally substituted by OH, halo, or C 1-6 -alkyl; and R is H or C 1-6 -alkyl; for use in treating a polycystic disease.
A computer-implemented method for preventing domain name service, DNS, over Hypertext Transfer Protocol Secure, HTTPS, comprising: (a) receiving an HTTPS network packet addressed to a network address; the method being characterized by : (b) determining whether a network host at the network address is able to resolve a DNS request over HTTPS; (c) when the network host is determined to be able to resolve the DNS request over HTTPS, blocking the HTTPS network packet; and (d) testing to determine whether the network host at the network address supports DNS over HTTPS, wherein the testing comprises: (i) sending, via HTTPS, a DNS query to the network address; (ii) determining whether an appropriate response is received to the DNS query; and (iii) if the appropriate response is received, determining that the network host at the network address resolves a domain name over HTTPS. (a) receiving an HTTPS network packet addressed to a network address; (b) determining whether a network host at the network address is able to resolve a DNS request over HTTPS; (c) when the network host is determined to be able to resolve the DNS request over HTTPS, blocking the HTTPS network packet; and (d) testing to determine whether the network host at the network address supports DNS over HTTPS, wherein the testing comprises: (i) sending, via HTTPS, a DNS query to the network address; (ii) determining whether an appropriate response is received to the DNS query; and (iii) if the appropriate response is received, determining that the network host at the network address resolves a domain name over HTTPS. (i) sending, via HTTPS, a DNS query to the network address; (ii) determining whether an appropriate response is received to the DNS query; and (iii) if the appropriate response is received, determining that the network host at the network address resolves a domain name over HTTPS.
An 8-bit microprocessor comprising a Harvard architecture and comprising a program memory having a 16-bit instruction word size and a data memory having an 8-bit data size wherein an instruction word has a payload size for an address of up to 12 bits; and a central processing unit, CPU, coupled with the program memory and the data memory; characterized by an indirect addressing register (FSR) operable to address up to 16KB of data memory; and a bank select register (BSR) configured to select one of up to 64 memory banks; wherein the CPU is configured to execute a first move instruction (MOVFF; MOVSF) comprising two instruction words and configured to only access the lower 4KB of the data memory and a second move instruction (MOVFFL; MOVSFL) comprising three instruction words and configured to access the entire data memory, wherein a first instruction word of the second move instruction (MOVFFL) comprises 4 bits of a source address and a second instruction word of the second move instruction (MOVFFL) comprises 10 bits of the source address and 2 bits of a destination address and a third instruction word of the second move instruction (MOVFFL) comprises 12 bits of the destination address. a program memory having a 16-bit instruction word size and a data memory having an 8-bit data size wherein an instruction word has a payload size for an address of up to 12 bits; and a central processing unit, CPU, coupled with the program memory and the data memory; characterized by an indirect addressing register (FSR) operable to address up to 16KB of data memory; and a bank select register (BSR) configured to select one of up to 64 memory banks; wherein the CPU is configured to execute a first move instruction (MOVFF; MOVSF) comprising two instruction words and configured to only access the lower 4KB of the data memory and a second move instruction (MOVFFL; MOVSFL) comprising three instruction words and configured to access the entire data memory, wherein a first instruction word of the second move instruction (MOVFFL) comprises 4 bits of a source address and a second instruction word of the second move instruction (MOVFFL) comprises 10 bits of the source address and 2 bits of a destination address and a third instruction word of the second move instruction (MOVFFL) comprises 12 bits of the destination address.
A base unit of a modular centrifugal separator configured for separating a liquid feed mixture into a heavy phase and a light phase, the modular centrifugal separator comprising the base unit and an exchangeable separation insert , the exchangeable separation insert being configured to form the only part of the modular centrifugal separator , which is in contact with the liquid feed mixture, and the separated heavy and light phases, wherein the base unit comprises a stationary frame , a rotatable member configured to rotate about an axis of rotation arranged in the stationary frame , and a drive unit for rotating the rotatable member about the axis of rotation, wherein the rotatable member has a first axial end and a second axial end , and delimits an inner space at least in a radial direction, the inner space being configured for receiving at least one part of the exchangeable separation insert therein such that portions of the rotatable member delimiting the inner space are fully separate from the liquid feed mixture, and the separated heavy and light phases during use of the modular centrifugal separator, and wherein the rotatable member is provided with a first opening at the first axial end configured for a first fluid connection of the exchangeable separation insert to extend through the first opening , wherein the rotatable member comprises a second opening at the second axial end configured for a second fluid connection of the exchangeable separation insert to extend through the second opening . the modular centrifugal separator comprising the base unit and an exchangeable separation insert , the exchangeable separation insert being configured to form the only part of the modular centrifugal separator , which is in contact with the liquid feed mixture, and the separated heavy and light phases, wherein the base unit comprises a stationary frame , a rotatable member configured to rotate about an axis of rotation arranged in the stationary frame , and a drive unit for rotating the rotatable member about the axis of rotation, wherein the rotatable member has a first axial end and a second axial end , and delimits an inner space at least in a radial direction, the inner space being configured for receiving at least one part of the exchangeable separation insert therein such that portions of the rotatable member delimiting the inner space are fully separate from the liquid feed mixture, and the separated heavy and light phases during use of the modular centrifugal separator, and wherein the rotatable member is provided with a first opening at the first axial end configured for a first fluid connection of the exchangeable separation insert to extend through the first opening , wherein the rotatable member comprises a second opening at the second axial end configured for a second fluid connection of the exchangeable separation insert to extend through the second opening .
Pulse generating system for a patient comprising: a pulse generating means for generating a pulse or pulses, and a controlling means for controlling the pulse generating means , wherein the pulse generating system is configured to work in at least a regular mode and a safety mode, wherein in the regular mode the pulse generating means and the controlling means are connected, wherein in the safety mode there is no or limited connection between the pulse generating means and the controlling means , and wherein in the safety mode the pulse generating means automatically switches to a baseline stimulation command, characterized in that the pulse generating system is configured to work in the regular mode or the safety mode depending on a detected posture or orientation of the patient. a pulse generating means for generating a pulse or pulses, and a controlling means for controlling the pulse generating means , wherein the pulse generating system is configured to work in at least a regular mode and a safety mode, wherein in the regular mode the pulse generating means and the controlling means are connected, wherein in the safety mode there is no or limited connection between the pulse generating means and the controlling means , and wherein in the safety mode the pulse generating means automatically switches to a baseline stimulation command, characterized in that the pulse generating system is configured to work in the regular mode or the safety mode depending on a detected posture or orientation of the patient.
A device for incising a trabecular meshwork, the device comprising: a platform for elevating a portion of the trabecular meshwork away from an outer wall of a Schlemm's canal, the platform comprising a tip at a distal side of the platform and a top surface extending from the distal side to a proximal side of the platform , opposite the distal side of the platform ; first and second sides extending from the top surface , wherein the first and second sides are parallel to each other; and first and second lateral elements for creating first and second incisions through the trabecular meshwork, the first and second lateral elements extending from the proximal side of the platform , characterized by a bottom surface , opposite the top surface and defined by: a first protrusion below the first side ; and a second protrusion below the second side , wherein the first and second protrusions are separated by a gap. a platform for elevating a portion of the trabecular meshwork away from an outer wall of a Schlemm's canal, the platform comprising a tip at a distal side of the platform and a top surface extending from the distal side to a proximal side of the platform , opposite the distal side of the platform ; first and second sides extending from the top surface , wherein the first and second sides are parallel to each other; and first and second lateral elements for creating first and second incisions through the trabecular meshwork, the first and second lateral elements extending from the proximal side of the platform , characterized by a bottom surface , opposite the top surface and defined by: a first protrusion below the first side ; and a second protrusion below the second side , wherein the first and second protrusions are separated by a gap. a first protrusion below the first side ; and a second protrusion below the second side , wherein the first and second protrusions are separated by a gap.
An apparatus comprising: a cap; and a cap liner , wherein the cap liner comprises a primary oxygen barrier layer which has a metalized layer, and a first diffusive layer , wherein a first side of the first diffusive layer is adjacent to a first side of the primary oxygen barrier layer , wherein a second side of the first diffusive layer is contactable with a lip-sealing surface of a bottle , and wherein the cap liner when secured on the bottle by the cap has an oxygen transmission rate increase as a thickness of the first diffusive layer increases. a cap; and a cap liner , wherein the cap liner comprises a primary oxygen barrier layer which has a metalized layer, and a first diffusive layer , wherein a first side of the first diffusive layer is adjacent to a first side of the primary oxygen barrier layer , wherein a second side of the first diffusive layer is contactable with a lip-sealing surface of a bottle , and wherein the cap liner when secured on the bottle by the cap has an oxygen transmission rate increase as a thickness of the first diffusive layer increases.
A surface-emitting laser device configured to emit laser light in a direction perpendicular to a substrate (101; 201), the device comprising: a p-side electrode (113; 213) surrounding an emitting area on an emitting surface to emit the laser light, wherein an aperture in the surrounding p-side electrode (113; 213) forms the emitting area; and a transparent dielectric film (111A; 11B; 211) formed on an outside area outside a center part of the emitting area and within the emitting area to lower a reflectance to be less than that of the center part, wherein the outside area within the emitting area has shape anisotropy in two mutually perpendicular directions. a p-side electrode (113; 213) surrounding an emitting area on an emitting surface to emit the laser light, wherein an aperture in the surrounding p-side electrode (113; 213) forms the emitting area; and a transparent dielectric film (111A; 11B; 211) formed on an outside area outside a center part of the emitting area and within the emitting area to lower a reflectance to be less than that of the center part, wherein the outside area within the emitting area has shape anisotropy in two mutually perpendicular directions.
Circuit arrangement for controlling a power semiconductor switch , the switch comprising a gate terminal (G), a source terminal (S) and a drain terminal (D) with a conduction channel being formed between the source and drain terminals (S, D), the circuit arrangement comprising: - means for generating a control signal by which the semiconductor switch is alternated between a turned-on state and a turned-off state; - a current source for injecting a current into the gate terminal (G); - an evaluation unit arranged to: -- measure the voltage between the gate terminal (G) and one of the source terminal and drain terminal (S, D) while the semiconductor switch is in the turned-on state, -- determine from the measured voltage and the current from the current source the absolute temperature of the semiconductor switch . - means for generating a control signal by which the semiconductor switch is alternated between a turned-on state and a turned-off state; - a current source for injecting a current into the gate terminal (G); - an evaluation unit arranged to: -- measure the voltage between the gate terminal (G) and one of the source terminal and drain terminal (S, D) while the semiconductor switch is in the turned-on state, -- determine from the measured voltage and the current from the current source the absolute temperature of the semiconductor switch . -- measure the voltage between the gate terminal (G) and one of the source terminal and drain terminal (S, D) while the semiconductor switch is in the turned-on state, -- determine from the measured voltage and the current from the current source the absolute temperature of the semiconductor switch .
Stacking panel, formed from at least three board layers, formed in each case by parallel boards, a plurality of dowel nodes which consist of two or more dowels arranged so as to be inclined with respect to one another being provided for connecting the board layers, which result in a connection of board layers stacked one above the other such that the individual board layers are inseparably interconnected because the dowels are pressed two-dimensionally into the board layers, characterised in that each of the dowels of the plurality of dowel nodes interconnects only two board layers, a plurality of dowel nodes being arranged one above the other in each case, an overlap of the individual dowels being prevented by the inclined arrangement of the dowels, and the superimposed dowels being arranged preferably in parallel.
A pan tilt camera comprising: a lens means including an image sensor, wherein the lens means can be tilted about a tilt rotation axis and rotated about a pan rotation axis; a rotating means configured to be rotatable about the pan rotation axis; a non-rotating means to which the rotating means is rotatably attached; and a flexible printed circuit configured to connect the lens means with the non-rotating means and including an arc-shaped first portion coaxial with the pan rotation axis in a plane perpendicular to the pan rotation axis, wherein the first portion is bent around an axis perpendicular to the pan rotation axis; characterized in that the flexible printed circuit further comprises an arc-shaped second portion coaxial with the tilt rotation axis in a plane perpendicular to the tilt rotation axis and bent around an axis perpendicular to the tilt rotation axis. a lens means including an image sensor, wherein the lens means can be tilted about a tilt rotation axis and rotated about a pan rotation axis; a rotating means configured to be rotatable about the pan rotation axis; a non-rotating means to which the rotating means is rotatably attached; and a flexible printed circuit configured to connect the lens means with the non-rotating means and including an arc-shaped first portion coaxial with the pan rotation axis in a plane perpendicular to the pan rotation axis, wherein the first portion is bent around an axis perpendicular to the pan rotation axis; characterized in that the flexible printed circuit further comprises an arc-shaped second portion coaxial with the tilt rotation axis in a plane perpendicular to the tilt rotation axis and bent around an axis perpendicular to the tilt rotation axis.
A power interruption method by a power interruption device , comprising: receiving a detection signal detected by each of a ZCT , a current transformer , or a voltage detector coupled to a power supply line supplying power to a load; generating an ADC value of a target signal input based on the detection signal; generating a control signal for tripping depending on occurrence of an instantaneous overcurrent or a leakage overcurrent for interrupting power supply to the load for the target signal input based on the detection signal; and interrupting the power supply to the load according to the control signal, wherein the control signal is generated based on a comparison between a) a time interval (T1, T2, T3) between time points at which a predetermined signal magnitude level of the ADC value of the target signal is the same in subsequent descending and ascending signals and b) a predetermined threshold time interval, wherein the power is AC power, the power interruption method being characterized in that the time interval between the time points at which the signal magnitude level is the same is determined within a semi-period of the AC power. receiving a detection signal detected by each of a ZCT , a current transformer , or a voltage detector coupled to a power supply line supplying power to a load; generating an ADC value of a target signal input based on the detection signal; generating a control signal for tripping depending on occurrence of an instantaneous overcurrent or a leakage overcurrent for interrupting power supply to the load for the target signal input based on the detection signal; and interrupting the power supply to the load according to the control signal, wherein the control signal is generated based on a comparison between a) a time interval (T1, T2, T3) between time points at which a predetermined signal magnitude level of the ADC value of the target signal is the same in subsequent descending and ascending signals and b) a predetermined threshold time interval, wherein the power is AC power, the power interruption method being characterized in that the time interval between the time points at which the signal magnitude level is the same is determined within a semi-period of the AC power.
An output power distribution module, comprising a first power distribution control module and a second power distribution control module arranged symmetrically on opposite sides of the output power distribution module with an intermediate framework positioned between, wherein a power board , a monitor board , an output circuit breaker , and a customer wiring terminal are integrated inside each power distribution control module ; input copper bars are integrated on the intermediate framework inside the power distribution module; the input copper bars are connected to the power board , the monitor board , and the output circuit breaker of the power distribution control modules by using a cable; the input copper bars are configured to bear a current inside a power distribution cabinet, and transmit an output value of the current to an adjacent output power distribution module; and the input copper bars are further configured to distribute, by using the cable, an input current to the power board , the monitor board , and the output circuit breaker of the power distribution control modules, and the output circuit breaker of each power distribution control module is configured to output an input current to the customer wiring terminal .
A method for determining that a full node maintains a valid blockchain, the method comprising: querying (S918), by a client device (904; 102), a full node for a random sampling of block headers of a blockchain maintained by the full node from the full node ; receiving (S920), by the client device (904; 102), the random sampling of block headers from the full node and a plurality of Merkle Mountain Range proofs associated with the random sampling of block headers for the full node ; verifying (S922), by the client device , the random sampling of block headers ; verifying (S924), by the client device , the validity of the Merkle Mountain Range proofs associated with the random sampling of block headers ; and determining (S928) that the blockchain maintained by the full node is valid after verifying (S922) the random sampling of block headers and verifying (S924) the Merkle Mountain Range proofs associated with the random sampling of block headers . querying (S918), by a client device (904; 102), a full node for a random sampling of block headers of a blockchain maintained by the full node from the full node ; receiving (S920), by the client device (904; 102), the random sampling of block headers from the full node and a plurality of Merkle Mountain Range proofs associated with the random sampling of block headers for the full node ; verifying (S922), by the client device , the random sampling of block headers ; verifying (S924), by the client device , the validity of the Merkle Mountain Range proofs associated with the random sampling of block headers ; and determining (S928) that the blockchain maintained by the full node is valid after verifying (S922) the random sampling of block headers and verifying (S924) the Merkle Mountain Range proofs associated with the random sampling of block headers .