mhurhangee/ep-ind-claims huggingface dataset:
A fire detection system, the system comprising: one or more fire sensors (20, 21) installed in a building for detecting indications of fire and generating alarm signals; one or more override panels (50-1, 50-2) that enable occupants of the building to generate override commands; and a monitoring system for generating a fire alarm in response to the alarm signals from the fire sensors and whether or not the override commands have been generated, wherein in response to information indicative of the presence or absence of occupants, the monitoring system determines whether to generate a local alarm, the generation of which is a precondition for the monitoring system generating the fire alarm, wherein the local alarm is generated only if occupants are present in proximity to one of said one or more override panels (50-1, 50-2). one or more fire sensors (20, 21) installed in a building for detecting indications of fire and generating alarm signals; one or more override panels (50-1, 50-2) that enable occupants of the building to generate override commands; and a monitoring system for generating a fire alarm in response to the alarm signals from the fire sensors and whether or not the override commands have been generated, wherein in response to information indicative of the presence or absence of occupants, the monitoring system determines whether to generate a local alarm, the generation of which is a precondition for the monitoring system generating the fire alarm, wherein the local alarm is generated only if occupants are present in proximity to one of said one or more override panels (50-1, 50-2).
A video encoding method comprising: for an input block of image data performing motion estimation to produce M motion vectors and to generate M original weighting parameters wQ i for i = 0 to M - 1 for multi-hypothesis partitions, wherein M different hypotheses are used for each block that is being subjected to motion compensated prediction and wherein each of the multi-hypothesis partitions corresponds to a block belonging to one of one or more reference frames; computing the sum of all of the original weighting parameters, wherein said sum is equal to a constant; transforming said original weighting parameters wQ i to transformed weighting parameters B_wQ k for k = 0 to M - 1, wherein the first transformed weighting parameter B_wQ 0 is equal to said sum of all the original weighting parameters and wherein each remaining transformed weighting parameter B_wQ k for k = 1,... M - 1 is equal to wQ k-1 minus said sum of all of the original weighting parameters divided by the number of original weighting parameters M; performing motion compensation to generate a prediction using said M motion vectors and said M original weighting parameters; producing a residual by subtracting said prediction from said input block of image data; transforming said residual using a discrete cosine transform to create a 2-D array of transformed coefficients; quantizing said transformed coefficients; and variable length coding said transformed weighting parameters and said quantized transformed coefficients to generate a bitstream. for an input block of image data performing motion estimation to produce M motion vectors and to generate M original weighting parameters wQ i for i = 0 to M - 1 for multi-hypothesis partitions, wherein M different hypotheses are used for each block that is being subjected to motion compensated prediction and wherein each of the multi-hypothesis partitions corresponds to a block belonging to one of one or more reference frames; computing the sum of all of the original weighting parameters, wherein said sum is equal to a constant; transforming said original weighting parameters wQ i to transformed weighting parameters B_wQ k for k = 0 to M - 1, wherein the first transformed weighting parameter B_wQ 0 is equal to said sum of all the original weighting parameters and wherein each remaining transformed weighting parameter B_wQ k for k = 1,... M - 1 is equal to wQ k-1 minus said sum of all of the original weighting parameters divided by the number of original weighting parameters M; performing motion compensation to generate a prediction using said M motion vectors and said M original weighting parameters; producing a residual by subtracting said prediction from said input block of image data; transforming said residual using a discrete cosine transform to create a 2-D array of transformed coefficients; quantizing said transformed coefficients; and variable length coding said transformed weighting parameters and said quantized transformed coefficients to generate a bitstream.
A local oscillator buffer circuit comprising: a complementary common-source stage comprising a first p-channel transistor and a first n-channel transistor, arranged such that a respective gate terminal of each of the first p-channel and n-channel transistors are connected together at a first input node, and a respective drain terminal of each of the first p-channel and n-channel transistors are connected together at a buffer output node; and a complementary source-follower stage comprising a second p-channel transistor and a second n-channel transistor, arranged such that a respective gate terminal of each of the second p-channel and n-channel transistors are connected together at a second input node, and a respective source terminal of each of the second p-channel and n-channel transistors are connected together at the buffer output node. a complementary common-source stage comprising a first p-channel transistor and a first n-channel transistor, arranged such that a respective gate terminal of each of the first p-channel and n-channel transistors are connected together at a first input node, and a respective drain terminal of each of the first p-channel and n-channel transistors are connected together at a buffer output node; and a complementary source-follower stage comprising a second p-channel transistor and a second n-channel transistor, arranged such that a respective gate terminal of each of the second p-channel and n-channel transistors are connected together at a second input node, and a respective source terminal of each of the second p-channel and n-channel transistors are connected together at the buffer output node.
A lock comprising: - a hook bolt which is mounted in the lock, pivotally movable about a pivotal axis, between a retracted position and an extended position; - a forend exhibiting a bolt opening, through which the hook bolt extends in the extended position; and - a lock mechanism, which is connected to the hook bolt for driving the hook bolt between the retracted and the extended position, wherein the hook bolt exhibits a first cross section which, in the extended position, is arranged in a plane of the bolt opening and which exhibits an inner portion and an outer portion, said inner portion being arranged closer to the pivotal axis than said outer portion, wherein the inner portion of the first cross section is generally rectangular and the outer portion of the first cross section is outwardly tapering characterized by a guiding cam having a shape that closely corresponds to the shape of the outer portion of the first cross section, which guiding cam is arranged inside the lock to guidingly receive a radially outward portion (56") of the hook bolt during movement between the retracted and the extended position. - a hook bolt which is mounted in the lock, pivotally movable about a pivotal axis, between a retracted position and an extended position; - a forend exhibiting a bolt opening, through which the hook bolt extends in the extended position; and - a lock mechanism, which is connected to the hook bolt for driving the hook bolt between the retracted and the extended position, wherein
A machine comprising a communication unit and a SIM card, which SIM card comprises a microcontroller, at least one sensor (B; C), and an element for deactivating at least some of its functions, wherein the microcontroller comprises a program for building and sending to a remote server an alert message reporting an abnormal measurement value in response to a signal from the sensor indicating an environment status value outside a predetermined measurement range, the deactivating element being configured to deactivate at least some functions of the controller in response to receiving a deactivating message from the remote server.
A Luneburg lens antenna device (1, 21, 31) comprising: a Luneburg lens that is formed in a cylindrical shape and has a distribution of different dielectric constants in a radial direction; and a plurality of patch antennas (6A-6C, 22A-22C, 32A-32D) that are disposed on an outer peripheral surface of the Luneburg lens and at different positions of focal points of the Luneburg lens in a peripheral direction, wherein the plurality of the patch antennas (6A-6C, 22A-22C, 32A-32D) each include a radiating element (7A-7D) and a ground electrode (11A-11C, 23A1-23C1, 23A2-23C2, 33A-33D), the radiating element (7A-7D) being disposed on the outer peripheral surface of the Luneburg lens, the ground electrode (11A-11C, 23A1-23C1, 23A2-23C2, 33A-33D) being positioned at a side opposite the Luneburg lens as viewed from the radiating element (7A-7D) so as to cover the radiating element (7A-7C), the ground electrodes (11A-11C, 23A1-23C1, 23A2-23C2, 33A-33D) of the plurality of patch antennas (6A-6C, 22A-22C, 32A-32D) being separately disposed in association with the plurality of patch antennas (6A-6C, 22A-22C, 32A-32D), and a plurality of the ground electrodes (11A-11C, 23A1-23C1, 23A2-23C2, 33A-33D) each extend linearly in an axial direction of the Luneburg lens and form a low-frequency antenna (24A-24C, 34A-34D) which is configured to radiate lower-frequency radio waves than radio waves radiated from the patch antennas (6A-6C, 22A-22C, 32A-32D). a Luneburg lens that is formed in a cylindrical shape and has a distribution of different dielectric constants in a radial direction; and a plurality of patch antennas (6A-6C, 22A-22C, 32A-32D) that are disposed on an outer peripheral surface of the Luneburg lens and at different positions of focal points of the Luneburg lens in a peripheral direction, wherein the plurality of the patch antennas (6A-6C, 22A-22C, 32A-32D) each include a radiating element (7A-7D) and a ground electrode (11A-11C, 23A1-23C1, 23A2-23C2, 33A-33D), the radiating element (7A-7D) being disposed on the outer peripheral surface of the Luneburg lens, the ground electrode (11A-11C, 23A1-23C1, 23A2-23C2, 33A-33D) being positioned at a side opposite the Luneburg lens as viewed from the radiating element (7A-7D) so as to cover the radiating element (7A-7C), the ground electrodes (11A-11C, 23A1-23C1, 23A2-23C2, 33A-33D) of the plurality of patch antennas (6A-6C, 22A-22C, 32A-32D) being separately disposed in association with the plurality of patch antennas (6A-6C, 22A-22C, 32A-32D), and a plurality of the ground electrodes (11A-11C, 23A1-23C1, 23A2-23C2, 33A-33D) each extend linearly in an axial direction of the Luneburg lens and form a low-frequency antenna (24A-24C, 34A-34D) which is configured to radiate lower-frequency radio waves than radio waves radiated from the patch antennas (6A-6C, 22A-22C, 32A-32D).
A medical device comprising: a pipe body in which a guide wire lumen allowing a guide wire to be inserted therein and an observation unit lumen (26, 27, 28) allowing an observation unit that acquires image information inside a living body to be inserted therein are formed, and a rotary shaft that is inserted into the observation unit lumen (26, 27, 28) and is rotatable in order to transmit mechanical drive force to the observation unit, wherein in the pipe body, a circular portion of the observation unit lumen (26, 27, 28) having a uniform radius is formed on a side separated from the guide wire lumen, characterized in that in the pipe body, a non-circular portion (262, 264, 266, 268, 269) of the observation unit lumen (26, 27, 28) having distances from the center point of the circular portion to its inner surface being non-uniform and longer than the radius of the circular portion is formed in at least a part of a side close to the guide wire lumen. a pipe body in which a guide wire lumen allowing a guide wire to be inserted therein and an observation unit lumen (26, 27, 28) allowing an observation unit that acquires image information inside a living body to be inserted therein are formed, and a rotary shaft that is inserted into the observation unit lumen (26, 27, 28) and is rotatable in order to transmit mechanical drive force to the observation unit, wherein in the pipe body, a circular portion of the observation unit lumen (26, 27, 28) having a uniform radius is formed on a side separated from the guide wire lumen, characterized in that in the pipe body, a non-circular portion (262, 264, 266, 268, 269) of the observation unit lumen (26, 27, 28) having distances from the center point of the circular portion to its inner surface being non-uniform and longer than the radius of the circular portion is formed in at least a part of a side close to the guide wire lumen.
Use of a polysaccharide composition for protection of a surface, said polysaccharide composition comprising an aqueous solution of at least two components, the first component being a polysaccharide or a mixture of polysaccharides having an average molecular weight M w of at least 100 000, and being capable of forming a gel, wherein component A is selected from the group consisting of agar, carrageenans, gellan gum, pectins or mixtures thereof, a mixture of agar with guar gum, locust bean gum and/or xanthan gum, and a combination of xanthan gum with guar gum or locust bean gum, and the second component being a polysaccharide or a mixture of polysaccharides having an average molecular weight M w of 400-25 000, and being capable of inhibiting gel formation in said composition, wherein the weight ratio between A and B is in the range of from 5:1 to 1:50 based on polysaccharide dry weight, and the total concentration of A+B in the composition is in the range of 0.1-30 % (w/v) based on polysaccharide dry weight.
A surgical hand wrap for attaching a patient's arm to a limb positioning device to hold the arm in traction during a surgical procedure, the hand wrap comprising: a flexible mitten portion having an interior side and an exterior side, the mitten portion configured to enclose at least a hand of the patient in an open position; an anatomically-shaped plate for supporting a palm of the hand in the open position wherein the plate comprises a distal portion configured to attach to the limb positioning device; and at least one closeable strap for wrapping around the exterior side of the mitten portion; wherein, when traction is applied to the patient's arm via the distal portion of the plate, the plate, the mitten portion, and the at least one strap combine to allow low-contact pressure across the hand of the patient. a flexible mitten portion having an interior side and an exterior side, the mitten portion configured to enclose at least a hand of the patient in an open position; an anatomically-shaped plate for supporting a palm of the hand in the open position wherein the plate comprises a distal portion configured to attach to the limb positioning device; and at least one closeable strap for wrapping around the exterior side of the mitten portion; wherein, when traction is applied to the patient's arm via the distal portion of the plate, the plate, the mitten portion, and the at least one strap combine to allow low-contact pressure across the hand of the patient.
A thin film photovoltaic cell comprising an n-type semiconductor window layer, a p-type semiconductor absorption layer, and a pn-junction at the interface between these two layers, wherein the p-type semiconductor absorption layer is formed of cadmium telluride CdTe, characterized in that the n-type semiconductor window layer comprises zinc oxide/sulfide Zn(O,S) comprising stacked thin layer packages, each of which including one sublayer of ZnO and another of ZnS, the thickness of each ZnO sublayer being 1 - 20 monolayers, and the thickness of each ZnS sublayer being 1 - 10 monolayers.
A slotted channel for surface drainage, which can be installed in a ground, comprising an inflow part having two side walls (21, 21') between which an inflow slot is formed, and at the lower ends of which in each case a support bracket (23, 23') is attached, and a channel element which can be attached below the inflow part such that surface water or similar liquid can be guided into the channel element through the inflow part, wherein the support brackets (23, 23') are attached and dimensioned to protrude beyond side walls (41, 41') of the channel element such that the support brackets (23, 23') can be installed in the ground without any contact to the channel element so that a load acting from above upon the inflow part - in the installed state - can be deflected into a ground portion situated next to the channel element, characterized by an elastically compressible sealing strip (24, 24') installed between one of the support brackets (23, 23') and the channel element.
Remote control device comprising: - a power generator designed to convert mechanical power to electric power, - a device for accumulating the electric power, the said device being connected to the power generator in order to collect the electric power generated by the generator and feed a wireless transmitter in order to send a message to a remote receiver, the device for accumulating the electric power comprising: - a first capacitor connected to the terminals of the power generator and a first switch designed to control the charging/discharging of the first capacitor, - a second capacitor connected to the first capacitor and a second switch designed to control the charging/discharging of the second capacitor, the remote control device being characterized in that it comprises sequential control means arranged to control successively the first switch and the second switch, the sequential control means comprising a control member that can move between two positions and that cooperates successively with the first switch and the second switch when there is a movement between its two positions - a power generator designed to convert mechanical power to electric power, - a device for accumulating the electric power, the said device being connected to the power generator in order to collect the electric power generated by the generator and feed a wireless transmitter in order to send a message to a remote receiver, the device for accumulating the electric power comprising: - a first capacitor connected to the terminals of the power generator and a first switch designed to control the charging/discharging of the first capacitor, - a second capacitor connected to the first capacitor and a second switch designed to control the charging/discharging of the second capacitor, - a first capacitor connected to the terminals of the power generator and a first switch designed to control the charging/discharging of the first capacitor, - a second capacitor connected to the first capacitor and a second switch designed to control the charging/discharging of the second capacitor,
Rock and concrete breaking (fracturing-demolishing-splitting) system characterized in that, a) Chemical mixture, comprising • potassium chlorate with ratio of 30 - 70 % by weight of mixture, • ammonium oxalate, with ratio of 15 -35 % by weight of mixture, • sugar or lactose or starch or any combination of them with ratio of 15 - 20 % by weight of mixture,, • boron oxide (boroxide) (B 2 O 3) with ratio of 5 - 10 % by weight of mixture, • borax decahydrate (Na 2 B 4 O 7.10H 2 O) with ratio of 3 - 5 % by weight of mixture, b) varistor (MOVs) as an activation component to be placed inside and/or in contact directly or indirectly with the chemical mixture, c) Activation system comprising mobile units and a main unit with the hardware and software and comprising mobile units and a main unit for activating the varistor used as an activation component and that the activation component is used in the range of 0,1 V -100V voltage, and 100 μmA - 50000 A current under AC or DC voltage. a) Chemical mixture, comprising • potassium chlorate with ratio of 30 - 70 % by weight of mixture, • ammonium oxalate, with ratio of 15 -35 % by weight of mixture, • sugar or lactose or starch or any combination of them with ratio of 15 - 20 % by weight of mixture,, • boron oxide (boroxide) (B 2 O 3) with ratio of 5 - 10 % by weight of mixture, • borax decahydrate (Na 2 B 4 O 7.10H 2 O) with ratio of 3 - 5 % by weight of mixture, • potassium chlorate with ratio of 30 - 70 % by weight of mixture, • ammonium oxalate, with ratio of 15 -35 % by weight of mixture, • sugar or lactose or starch or any combination of them with ratio of 15 - 20 % by weight of mixture,, • boron oxide (boroxide) (B 2 O 3) with ratio of 5 - 10 % by weight of mixture, • borax decahydrate (Na 2 B 4 O 7.10H 2 O) with ratio of 3 - 5 % by weight of mixture, b) varistor (MOVs) as an activation component to be placed inside and/or in contact directly or indirectly with the chemical mixture, c) Activation system comprising mobile units and a main unit with the hardware and software and comprising mobile units and a main unit for activating the varistor used as an activation component and that the activation component is used in the range of 0,1 V -100V voltage, and 100 μmA - 50000 A current under AC or DC voltage.