mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting a signal, which is transmitted by a user equipment using device-to-device, D2D, communication in a wireless communication system, the method comprising: classifying (S1101, S1202) each of a plurality of resource units into clean units or dirty units; when a number of the clean units is equal to or greater than a first threshold, selecting (S1102, S1203) one of the clean units as a transmission resource; when the number of the clean units is less than the first threshold, selecting (S1103, S1204) a dirty unit from among one or more dirty units as the transmission resource; and transmitting (S1102, S1103, S1203, S1204) a D2D signal using the selected transmission resource, wherein if an interference identified in a specific resource unit is equal to or less than a second threshold, the specific resource unit is referred to as a clean unit, otherwise, the specific resource unit is referred to as a dirty unit. classifying (S1101, S1202) each of a plurality of resource units into clean units or dirty units; when a number of the clean units is equal to or greater than a first threshold, selecting (S1102, S1203) one of the clean units as a transmission resource; when the number of the clean units is less than the first threshold, selecting (S1103, S1204) a dirty unit from among one or more dirty units as the transmission resource; and transmitting (S1102, S1103, S1203, S1204) a D2D signal using the selected transmission resource, wherein if an interference identified in a specific resource unit is equal to or less than a second threshold, the specific resource unit is referred to as a clean unit, otherwise, the specific resource unit is referred to as a dirty unit.
An electronic control system for a power tool, the system comprising: electronic sensing means configured to sense operating parameters of a power tool in use, wherein said power tool comprises an electric motor and a rotary output driven by said electric motor and wherein said operating parameters include a voltage across the electric motor, a current and an angular velocity (24ω) of the rotary output ; and wherein said electronic sensing means is configured to provide parameter output signals (20V, 20i, 24ω) derived from said sensed operating parameters; and an electronic control apparatus configured to determine from said operating parameter output signals (20V, 20i, 24ω) the torque (M) of said rotary output and control the angular velocity of the rotary output in response to the calculation of the torque (M) of said rotary output ; characterised in that the current sensed is the current through the whole power tool. electronic sensing means configured to sense operating parameters of a power tool in use, wherein said power tool comprises an electric motor and a rotary output driven by said electric motor and wherein said operating parameters include a voltage across the electric motor, a current and an angular velocity (24ω) of the rotary output ; and wherein said electronic sensing means is configured to provide parameter output signals (20V, 20i, 24ω) derived from said sensed operating parameters; and an electronic control apparatus configured to determine from said operating parameter output signals (20V, 20i, 24ω) the torque (M) of said rotary output and control the angular velocity of the rotary output in response to the calculation of the torque (M) of said rotary output ; characterised in that the current sensed is the current through the whole power tool.
A solid pharmaceutical composition comprising a plurality of spray dried particles, wherein the plurality of spray dried particles comprises at least one pharmaceutically active ingredient (API) having a low aqueous solubility that requires more than 30 parts of water to dissolve 1 part of API, a surfactant system comprising a combination of at least one nonionic surfactant and at least one zwitterionic surfactant, and at least one excipient other than a cellulose ether, wherein the at least one API is a non-opioid analgesic or an opioid analgesic; wherein the surfactant system comprises at least one sorbitan ester, at least one polyethoxylated sorbitan ester, at least one polyglycerol ester of a fatty acid, or a combination thereof, and at least one lecithin; and wherein the at least one excipient comprises a binder comprising pregelatinized starch and polyvinylpyrrolidinone, a disintegrant comprising crospovidone, croscarmellose sodium, sodium starch glycolate, or a combination thereof, and a lubricant comprising stearic acid, magnesium stearate, sodium lauryl sulfate, or a combination thereof; and wherein the plurality of spray dried particles has an average particle size from 10 micrometers to 500 micrometers.
Refrigeration appliance with an electrical component (107-1, 107-2), which emits noise during operation, a noise sensor (109-1, 109-2) for detecting an intensity of the noise emitted by the electrical component (107-1, 107-2) and a controller for operating the electrical component (107-1, 107-2) in a normal operating power range , wherein the controller is configured to change an operating power of the electrical component (107-1, 107-2) within the normal operating power range and to determine a minimum for the noise intensity detected by the noise sensor (109-1, 109-2) and to determine a noise-reduced operating power , in order to operate the electrical component (107-1, 107-2) with the noise-reduced operating power , wherein the electrical component (107-1, 107-2) has a maximum operating power within the normal operating power range , wherein the controller is configured to determine a plurality of minima for the noise intensity detected by the noise sensor (109-1, 109-2) within the normal operating power range and wherein the controller is configured to determine the noise-reduced operating power based on the minimum that corresponds to an operating power of the electrical component (107-1, 107-2), which is within a tolerance range of the maximum operating power.
An LED component comprising; - a plurality of electrically connected LEDs , at least a portion of said plurality having a peak wavelength emission between 200 nm and 500 nm, - an encapsulant material comprising a photo luminescent material and a base material, said encapsulant material at least partially encapsulating said plurality of LEDs, - wherein the LED component has a first light output spectrum with at least a first output peak in the wavelength range from 600 to 800 nm, said first output peak having a full width at half maximum of at least 50 nm, and a second light output peak corresponding to said portion of the plurality of LEDs, and - wherein the second light output peak having a peak wavelength emission between 200 nm and 500 nm is obtained with at least two emissive LEDs having emissive output wavelength peaks at least 5 nm apart from each other, characterized in that - the LEDs are arranged in a plastic leaded chip carrier comprising a cavity in which an anode, a cathode and a heat sink are located, wherein the LEDs are bonded to the heat sink and positioned from each other at a distance amounting to at least the LED's own width, and wherein the LEDs are not centrally aligned. - a plurality of electrically connected LEDs , at least a portion of said plurality having a peak wavelength emission between 200 nm and 500 nm, - an encapsulant material comprising a photo luminescent material and a base material, said encapsulant material at least partially encapsulating said plurality of LEDs, - wherein the LED component has a first light output spectrum with at least a first output peak in the wavelength range from 600 to 800 nm, said first output peak having a full width at half maximum of at least 50 nm, and a second light output peak corresponding to said portion of the plurality of LEDs, and - wherein the second light output peak having a peak wavelength emission between 200 nm and 500 nm is obtained with at least two emissive LEDs having emissive output wavelength peaks at least 5 nm apart from each other, - the LEDs are arranged in a plastic leaded chip carrier comprising a cavity in which an anode, a cathode and a heat sink are located, wherein the LEDs are bonded to the heat sink and positioned from each other at a distance amounting to at least the LED's own width, and wherein the LEDs are not centrally aligned.
Method for producing an extrudate with a sheath, in which method, by means of an extruder unit, the sheath is extruded with a predefined wall thickness, wherein, downstream of the extruder unit in a conveying direction, part of the still malleable material is accumulated with the aid of a mould unit during a shaping process in such a way that an integral moulding is formed on the sheath, wherein the mould unit is moved according to the following operating cycle, - the mould unit is accelerated from an initial position in the conveying direction, - the mould unit is actuated in the direction towards the extrudate, and the moulding is formed, - the mould unit is retracted from the extrudate, - the mould unit is decelerated and displaced from a terminal position, counter to the conveying direction, back in the direction towards the initial position, wherein the extrudate is conveyed in the conveying direction at a predefined linear speed, and the mould unit during the shaping process is displaced at a mould speed different from the linear speed, characterized in that the moulding is moulded directly from the material of the sheath in that the material of the sheath is scraped from the initially completed sheath and is accumulated for shaping the moulding, wherein the mould unit is displaced linearly along a linear guide between an initial position and a terminal position. - the mould unit is accelerated from an initial position in the conveying direction, - the mould unit is actuated in the direction towards the extrudate, and the moulding is formed, - the mould unit is retracted from the extrudate, - the mould unit is decelerated and displaced from a terminal position, counter to the conveying direction, back in the direction towards the initial position,
A patient monitor adapted to receive an intravenous line pole comprising: a channel , positioned on a rear surface of the monitor and configured to receive an intravenous line pole ; and characterized by a handle for carrying said monitor which, upon closing, creates a friction fit between an elastomer layer positioned on the handle and the intravenous line pole, wherein the friction fit, in combination with the intravenous line pole positioned within the channel, is capable of maintaining the monitor elevated off the ground. a channel , positioned on a rear surface of the monitor and configured to receive an intravenous line pole ; and characterized by a handle for carrying said monitor which, upon closing, creates a friction fit between an elastomer layer positioned on the handle and the intravenous line pole, wherein the friction fit, in combination with the intravenous line pole positioned within the channel, is capable of maintaining the monitor elevated off the ground.
Steam strainer with two supporting rings arranged spaced apart from one another in a longitudinal direction (L) and multiple strainer elements which are arranged adjacent to one another, are in the form of a segment of a ring, have a plurality of passage openings , are detachably fastened in each case to the supporting rings, and extend between said supporting rings, thereby forming a lateral surface, wherein the side edges of strainer elements arranged directly adjacent to one another bear against one another, wherein the passage openings of the strainer elements have a diffuser portion which widens radially inwards, the side edges of strainer elements arranged directly adjacent to one another define interlocking overlapping regions. wherein the side edges of strainer elements arranged directly adjacent to one another bear against one another, wherein the passage openings of the strainer elements have a diffuser portion which widens radially inwards, the side edges of strainer elements arranged directly adjacent to one another define interlocking overlapping regions.
An induction heating device comprising: a first board having, thereon: a first working coil (WC1); a first inverter (IV1) for performing a switching operation to apply a resonant current to the first working coil (WC1); and a first control unit configured for controlling an operation of the first inverter (IV1); and a second board having, thereon: a second working coil (WC2); a second inverter (IV2) for performing a switching operation to apply a resonant current to the second working coil (WC2); and a second control unit configured for controlling an operation of the second inverter (IV2), wherein the first control unit is configured for enabling the first and second working coils (WC1, WC2) to operate concurrently at an in-phase or 180-degrees out-of-phase, characterized in that when the first and second working coils (WC1, WC2) operate concurrently, the first control unit is configured to control the operations of both the first and second inverters (IVI, IV2). a first board having, thereon: a first working coil (WC1); a first inverter (IV1) for performing a switching operation to apply a resonant current to the first working coil (WC1); and a first control unit configured for controlling an operation of the first inverter (IV1); and a first working coil (WC1); a first inverter (IV1) for performing a switching operation to apply a resonant current to the first working coil (WC1); and a first control unit configured for controlling an operation of the first inverter (IV1); and a second board having, thereon: a second working coil (WC2); a second inverter (IV2) for performing a switching operation to apply a resonant current to the second working coil (WC2); and a second control unit configured for controlling an operation of the second inverter (IV2), a second working coil (WC2); a second inverter (IV2) for performing a switching operation to apply a resonant current to the second working coil (WC2); and a second control unit configured for controlling an operation of the second inverter (IV2), wherein the first control unit is configured for enabling the first and second working coils (WC1, WC2) to operate concurrently at an in-phase or 180-degrees out-of-phase, characterized in that when the first and second working coils (WC1, WC2) operate concurrently, the first control unit is configured to control the operations of both the first and second inverters (IVI, IV2).
A system for treating postpartum hemorrhage, the system comprising: an elongated catheter having a proximal end and a distal end ; a suction member attached to the distal end of the catheter ; an inflatable balloon attached to the catheter proximally relative to the suction member; a first lumen extending through the catheter in fluid communication with a cavity defined by the suction member, the first lumen configured to apply a vacuum force to the suction member, wherein the suction member includes a distally facing recess configured to anchor the distal end of the elongated catheter to an internal surface of a patient when the vacuum force is applied to the suction member; and a second lumen extending through the catheter in fluid communication with the inflatable balloon and configured to deliver inflation fluid to the balloon to inflate the balloon. an elongated catheter having a proximal end and a distal end ; a suction member attached to the distal end of the catheter ; an inflatable balloon attached to the catheter proximally relative to the suction member; a first lumen extending through the catheter in fluid communication with a cavity defined by the suction member, the first lumen configured to apply a vacuum force to the suction member, wherein the suction member includes a distally facing recess configured to anchor the distal end of the elongated catheter to an internal surface of a patient when the vacuum force is applied to the suction member; and a second lumen extending through the catheter in fluid communication with the inflatable balloon and configured to deliver inflation fluid to the balloon to inflate the balloon.
A bioink for use in 3D bioprinting, wherein the bioink comprises cellulose nanofibril based hydrogel, calcium-containing particles and at least one additional biopolymer, the additional biopolymer being chosen from the group comprising alginates, hyaluronic acid, agarose, chitosan, fibrin, collagen and gelatin, wherein the calcium-containing particles have a fraction size smaller than 400 microns, a concentration of 1-40% (w/v) and are composed of β-tricalcium phosphate, biphasic HA-TCP or natural bone powder, wherein the natural bone powder is of human or porcine origin.
An apparatus comprising: a first housing portion comprising a test fixture dimensioned and configured to overlay at least a display screen portion of a computing device , an arrangement of receptacles being formed in the test fixture and configured to receive contact members within the receptacles as to render each of the contact members independently detectable by the computing device while each respective contact member is received in the receptacles; and a second housing portion connected to the first housing portion and configured to attach the first housing portion with respect to the display screen portion of the computing device , the second housing portion including a contact surface to mechanically and electrically connect the test fixture with a body of the computing device, the first and second housing portions being connected together such that the receptacles are electrically connected to the computing device, wherein the test fixture is pivotably connected to the second housing portion and, when the second housing is attached to the computing device , is configured to enable rotational movement of the test fixture with respect to the display screen portion of the computing device between a test position in which the test fixture is in an overlying position with the display screen portion and a support position in which the test fixture is operative to support the computing device. a first housing portion comprising a test fixture dimensioned and configured to overlay at least a display screen portion of a computing device , an arrangement of receptacles being formed in the test fixture and configured to receive contact members within the receptacles as to render each of the contact members independently detectable by the computing device while each respective contact member is received in the receptacles; and a second housing portion connected to the first housing portion and configured to attach the first housing portion with respect to the display screen portion of the computing device , the second housing portion including a contact surface to mechanically and electrically connect the test fixture with a body of the computing device, the first and second housing portions being connected together such that the receptacles are electrically connected to the computing device, wherein the test fixture is pivotably connected to the second housing portion and, when the second housing is attached to the computing device , is configured to enable rotational movement of the test fixture with respect to the display screen portion of the computing device between a test position in which the test fixture is in an overlying position with the display screen portion and a support position in which the test fixture is operative to support the computing device.
A device configured to provide a machine-to-machine, M2M, service layer that uses meta-data for format description of data, the device comprising: a processor ; and a memory coupled with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a message comprising a request to retrieve a first type of measurement data in a first format, wherein the request is from a first application , the message comprising an indication of the first format; in response to receiving the message, obtaining the first type of measurement data in a stored format and meta-data comprising a format description of the first type of measurement data in the stored format, wherein the first format and the stored format are different; parsing the obtained first type of measurement data in the stored format based on the meta-data comprising the format description of the first type of measurement data in the stored format; and converting the first type of measurement data to the first format from the stored format based on the parsing of the first type of measurement data based on the meta-data. a processor ; and a memory coupled with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a message comprising a request to retrieve a first type of measurement data in a first format, wherein the request is from a first application , the message comprising an indication of the first format; in response to receiving the message, obtaining the first type of measurement data in a stored format and meta-data comprising a format description of the first type of measurement data in the stored format, wherein the first format and the stored format are different; parsing the obtained first type of measurement data in the stored format based on the meta-data comprising the format description of the first type of measurement data in the stored format; and converting the first type of measurement data to the first format from the stored format based on the parsing of the first type of measurement data based on the meta-data. receiving a message comprising a request to retrieve a first type of measurement data in a first format, wherein the request is from a first application , the message comprising an indication of the first format; in response to receiving the message, obtaining the first type of measurement data in a stored format and meta-data comprising a format description of the first type of measurement data in the stored format, wherein the first format and the stored format are different; parsing the obtained first type of measurement data in the stored format based on the meta-data comprising the format description of the first type of measurement data in the stored format; and converting the first type of measurement data to the first format from the stored format based on the parsing of the first type of measurement data based on the meta-data.
An arrangement comprising a power cable and a measurement system, wherein the measurement system comprises: - an energy harvesting unit which is adapted to generate electrical energy, - a sensor for determining a measurement value, - a transmitting unit which is adapted to transmit the measurement value to a receiver, - a base plate on which the energy harvesting unit , the sensor and the transmitting unit are arranged, and - a heat conductor which is arranged above the base plate , wherein - the sensor and the transmitting unit are coupled to the energy harvesting unit , - the power cable comprises a conductor which is surrounded by a shield , and wherein the conductor and the shield are surrounded by a jacket , and - the measurement system is integrated in the power cable. - an energy harvesting unit which is adapted to generate electrical energy, - a sensor for determining a measurement value, - a transmitting unit which is adapted to transmit the measurement value to a receiver, - a base plate on which the energy harvesting unit , the sensor and the transmitting unit are arranged, and - a heat conductor which is arranged above the base plate , wherein - the sensor and the transmitting unit are coupled to the energy harvesting unit , - the power cable comprises a conductor which is surrounded by a shield , and wherein the conductor and the shield are surrounded by a jacket , and - the measurement system is integrated in the power cable.