mhurhangee/patent-ind-claim-en huggingface dataset:
An injectable biogel composition for controlled release of a biologically active ingredient, comprising: (a) an amphipathic peptide hydrogelator comprising at least 4 and at most 16 amino acid residues, wherein the amphipathic peptide hydrogelator comprises alternating hydrophobic and hydrophilic amino acids; and (b) one or more biologically active ingredient(s), wherein (a) and (b) are covalently coupled, optionally by a linker. (a) an amphipathic peptide hydrogelator comprising at least 4 and at most 16 amino acid residues, wherein the amphipathic peptide hydrogelator comprises alternating hydrophobic and hydrophilic amino acids; and (b) one or more biologically active ingredient(s), wherein (a) and (b) are covalently coupled, optionally by a linker.
A tissue processor , comprising an apparatus for indicating a reagent status in a reagent bottle in the tissue processor , comprising: a detector , configured to detect the reagent status; a controller , configured to generate a control signal based on the reagent status; and an indicator , configured to generate a signal for indicating the reagent status based on the control signal, characterised in that the indicator comprises a plurality of display modules , the plurality of display modules being in one-to-one correspondence with a plurality of reagent bottles in the tissue processor , wherein the plurality of display modules serves as backlight modules of the plurality of reagent bottles , respectively. a detector , configured to detect the reagent status; a controller , configured to generate a control signal based on the reagent status; and an indicator , configured to generate a signal for indicating the reagent status based on the control signal, characterised in that the indicator comprises a plurality of display modules , the plurality of display modules being in one-to-one correspondence with a plurality of reagent bottles in the tissue processor , wherein the plurality of display modules serves as backlight modules of the plurality of reagent bottles , respectively.
An intervertebral fusion cage for insertion between vertebrae, the cage including: a body defining a first, anterior portion , a second, posterior portion and a central portion extending between the anterior and posterior portions (14; 16); wherein the central portion defines a first surface which is, in use, a top surface and a second surface which is, in use, a bottom surface, the top and bottom surfaces (20; 22) carrying gripping formation for gripping end plates of the vertebrae; characterised in that the gripping formations (46; 48) on the top and bottom surfaces (20; 22) face substantially opposite directions such that the gripping formations on the top surface obstruct movement in a first direction while the gripping formations on the bottom surface obstruct movement in a second direction, which is substantially opposite the first direction. a body defining a first, anterior portion , a second, posterior portion and a central portion extending between the anterior and posterior portions (14; 16); wherein the central portion defines a first surface which is, in use, a top surface and a second surface which is, in use, a bottom surface, the top and bottom surfaces (20; 22) carrying gripping formation for gripping end plates of the vertebrae; characterised in that the gripping formations (46; 48) on the top and bottom surfaces (20; 22) face substantially opposite directions such that the gripping formations on the top surface obstruct movement in a first direction while the gripping formations on the bottom surface obstruct movement in a second direction, which is substantially opposite the first direction.
Electrical converter for the operation of intermateable converter components, having - a first electronic module with electronic components , - a module frame for mechanically receiving and grouping electronic modules, - an enclosure chassis and - an enclosure lid , wherein - at least one of the electronic components is a wide-bandgap GaN or InGaN power semiconductor switch and the at least one power semiconductor switch can be operated with a blocking voltage of at least 400 V, with a switching current of at least 7 A and with a clock frequency of at least 40 kHz, - the first electronic module is mechanically mated with the module frame by means of connecting elements , - once intermated with the module frame , the first electronic module is mechanically mated and latched by means of further connecting elements to the enclosure chassis via latch elements of the enclosure chassis or to the enclosure lid via latch elements of the enclosure lid and - the module frame is formed from a non-metallic material and metal is vapor-deposited onto the non-metallic material or is formed completely from a non-metallic material. - a first electronic module with electronic components , - a module frame for mechanically receiving and grouping electronic modules, - an enclosure chassis and - an enclosure lid , wherein - at least one of the electronic components is a wide-bandgap GaN or InGaN power semiconductor switch and the at least one power semiconductor switch can be operated with a blocking voltage of at least 400 V, with a switching current of at least 7 A and with a clock frequency of at least 40 kHz, - the first electronic module is mechanically mated with the module frame by means of connecting elements , - once intermated with the module frame , the first electronic module is mechanically mated and latched by means of further connecting elements to the enclosure chassis via latch elements of the enclosure chassis or to the enclosure lid via latch elements of the enclosure lid and - the module frame is formed from a non-metallic material and metal is vapor-deposited onto the non-metallic material or is formed completely from a non-metallic material.
System for air conditioning with a window opening formed in a room wall and with a ventilation device which has a supply air duct , an exhaust air duct and a heat exchanger , the heat exchanger being arranged on the inside of the room and the supply air duct and the exhaust air duct being guided through a window opening formed in a room wall , the heat exchanger being an enthalpy exchanger which contains an exchanger material which is equipped antibacterial.
Dehumidifier unit for dehumidifying air in a container having at least one Peltier element , wherein the Peltier element is embodied as a single-stage Peltier element , wherein the Peltier element is thermally connected to a cold side and to a warm side , wherein the cold side is embodied such that, during operation of the dehumidifier unit , humidity of the air condenses on the cold side , wherein the Peltier element is clamped in between the warm side and the cold side by means of a helical spring and a clamping pin , characterised in that the warm side , on the side facing towards the Peltier element , has a gland-type seal , wherein the gland-type seal is embodied by a recessed area on the warm side with a rubber bush inserted therein, wherein the rubber bush surrounds the clamping pin on its inner diameter.
A control system (14; 106; 200) for an atherectomy system (10; 100; 300) including a drive motor adapted to rotate a drive cable operably coupled to an atherectomy burr, the control system (14; 106; 200) comprising: an input adapted to receive an indication of a motor performance parameter ; an excitation module adapted to provide haptic feedback to a user of the atherectomy system (10; 100; 300), wherein the excitation module is a piezoelectric element that is adapted to cause a vibration when electrical power is applied to the piezoelectric element; and a controller operably coupled to the input and to the excitation module , the controller adapted to, when the motor performance parameter approaches a limit of a performance range, to activate the excitation module in order to provide haptic feedback to the user that the motor performance parameter is approaching the limit of the performance range. an input adapted to receive an indication of a motor performance parameter ; an excitation module adapted to provide haptic feedback to a user of the atherectomy system (10; 100; 300), wherein the excitation module is a piezoelectric element that is adapted to cause a vibration when electrical power is applied to the piezoelectric element; and a controller operably coupled to the input and to the excitation module , the controller adapted to, when the motor performance parameter approaches a limit of a performance range, to activate the excitation module in order to provide haptic feedback to the user that the motor performance parameter is approaching the limit of the performance range.
Heater apparatus to provide heat to at least one component of a spacecraft, wherein the heater apparatus comprises - a combustion chamber for a hypergolic propellant, and - a heat radiator configured to radiate heat originating from the combustion chamber towards the at least one component to be heated, characterised in that the combustion chamber is arranged in a heat conducting block at least partially attached to a surface of the heat radiator. - a combustion chamber for a hypergolic propellant, and - a heat radiator configured to radiate heat originating from the combustion chamber towards the at least one component to be heated,
A transmitter used for a wireless charging system , the transmitter comprising: a plurality of phase locked loops , PLLs, configured to output single-phase power signals ; a plurality of antennas (A, B, C, 220, 520) configured to transmit the power signals transmitted from the plurality of PLLs to a receiver ; and characterized by comprising a controller configured to determine a specific frequency for the receiver based on a signal strength indication, RSSI, received from the receiver and to allow output frequencies of the plurality of PLLs to be different from each other in a specific frequency band preset based on the specific frequency, wherein the controller determines the specific frequency based on information about a frequency being used by the receiver , and wherein the information is included in the RSSI. a plurality of phase locked loops , PLLs, configured to output single-phase power signals ; a plurality of antennas (A, B, C, 220, 520) configured to transmit the power signals transmitted from the plurality of PLLs to a receiver ; and characterized by comprising a controller configured to determine a specific frequency for the receiver based on a signal strength indication, RSSI, received from the receiver and to allow output frequencies of the plurality of PLLs to be different from each other in a specific frequency band preset based on the specific frequency, wherein the controller determines the specific frequency based on information about a frequency being used by the receiver , and wherein the information is included in the RSSI.
Process for producing at least one silicon-based nanoelement , in particular a nanowire, characterized in that it comprises the following stages: - providing a substrate comprising, at the surface, a first layer comprising electrically doped silicon within a range between 10 18 at.cm -3 and 10 21 at.cm -3 , - forming, on the first layer , a second layer based on silicon oxide with carbon atoms dispersed in the said second layer , the second layer comprising an atomic percentage between 0,1% and 10% - exposing the first and second layers to an oxidizing atmosphere, so as to oxidize at least a first section of the first layer at the interface of the said first layer with the second layer and to form the said at least one nanoelement at the said first section , the exposure stage to an oxidizing atmosphere comprising a stage of maintaining an oxidation temperature between 950°C and 1200°C to which the first and second layers are subjected. - providing a substrate comprising, at the surface, a first layer comprising electrically doped silicon within a range between 10 18 at.cm -3 and 10 21 at.cm -3 , - forming, on the first layer , a second layer based on silicon oxide with carbon atoms dispersed in the said second layer , the second layer comprising an atomic percentage between 0,1% and 10% - exposing the first and second layers to an oxidizing atmosphere, so as to oxidize at least a first section of the first layer at the interface of the said first layer with the second layer and to form the said at least one nanoelement at the said first section , the exposure stage to an oxidizing atmosphere comprising a stage of maintaining an oxidation temperature between 950°C and 1200°C to which the first and second layers are subjected.
Method of vacuum-treating a substrate or of manufacturing a vacuum-treated substrate, the method comprising the steps: - providing a vacuum chamber , - providing at least one substrate in said vacuum chamber, - generating a plasma environment in said vacuum chamber and exposing said at least one substrate to said plasma environment, wherein said plasma environment comprises a first plasma of a material deposition source and a second plasma of a non-deposition source; characterized in that the method comprises - operating said plasma environment repeatedly between a first and a second state, said first state (S1) being defined by: a higher plasma supply power to said first plasma causing a higher material deposition rate and a lower plasma supply power delivered to said second plasma, said second state (S2) being defined by: a lower plasma supply power to said first plasma, compared with said higher plasma supply power to said first plasma and causing a lower material deposition rate and a higher plasma supply power to said second plasma, compared with said lower plasma supply power to said second plasma. - providing a vacuum chamber , - providing at least one substrate in said vacuum chamber, - generating a plasma environment in said vacuum chamber and exposing said at least one substrate to said plasma environment, wherein said plasma environment comprises a first plasma of a material deposition source and a second plasma of a non-deposition source; - operating said plasma environment repeatedly between a first and a second state, said first state (S1) being defined by: a higher plasma supply power to said first plasma causing a higher material deposition rate and a lower plasma supply power delivered to said second plasma, said second state (S2) being defined by: a lower plasma supply power to said first plasma, compared with said higher plasma supply power to said first plasma and causing a lower material deposition rate and a higher plasma supply power to said second plasma, compared with said lower plasma supply power to said second plasma.
An artificial lung comprising: a gas exchanger portion that is provided with an external circulation-type gas exchanging hollow fiber membrane bundle ; and a wound heat exchanger portion that is provided with a heat exchanging element comprised of a resin tube, wherein the artificial lung is designed such that when a heat exchange performance coefficient of the artificial lung , a blood filling amount of the artificial lung , and a blood side pressure loss of the artificial lung are measured, and when Fp3=heat exchange performance coefficient of artificial lung/(blood filling amount of artificial lung [L]×blood side pressure loss of artificial lung [mmHg/(L/min)]) is calculated, a value of Fp3 is equal to or greater than 0.15. a gas exchanger portion that is provided with an external circulation-type gas exchanging hollow fiber membrane bundle ; and a wound heat exchanger portion that is provided with a heat exchanging element comprised of a resin tube, wherein the artificial lung is designed such that when a heat exchange performance coefficient of the artificial lung , a blood filling amount of the artificial lung , and a blood side pressure loss of the artificial lung are measured, and when Fp3=heat exchange performance coefficient of artificial lung/(blood filling amount of artificial lung [L]×blood side pressure loss of artificial lung [mmHg/(L/min)]) is calculated, a value of Fp3 is equal to or greater than 0.15.
A compound represented by the following Chemical Formula 1, a hydrate thereof, or a solvate thereof:
A method of, at a user equipment, UE, transmitting data through a physical sidelink shared channel, PSSCH, related to vehicle to every-thing, V2X, in a wireless communication system, the method comprising: configuring a resource pool for the PSSCH; configuring transmission parameters based on a movement speed of the UE ; and transmitting data, to another UE, through the PSSCH in the resource pool based on the configured transmission parameters, wherein the transmission parameters includes a number of repetitive transmissions and a transmission power, and wherein the number of repetitive transmissions and the transmission power are configured differently based on whether the movement speed of the UE is above or below a preconfigured threshold. configuring a resource pool for the PSSCH; configuring transmission parameters based on a movement speed of the UE ; and transmitting data, to another UE, through the PSSCH in the resource pool based on the configured transmission parameters, wherein the transmission parameters includes a number of repetitive transmissions and a transmission power, and wherein the number of repetitive transmissions and the transmission power are configured differently based on whether the movement speed of the UE is above or below a preconfigured threshold.
A battery pack, wherein a plurality of lock shafts are mounted on an outer side of the battery pack, characterized in that each of the lock shafts comprises a shaft seat and a shaft rod ; the lock shaft is mounted to the outer side of the battery pack by the shaft seat ; a concave positioning hole is arranged at an end of the shaft rod away from the shaft seat , and a first positioning steel magnet is mounted in the positioning hole .
A device , comprising: a substrate having a first surface and a second surface, and an alkali metal in contact with the substrate , wherein the alkali metal is a neat alkali metal selected from sodium and potassium and present in an amount sufficient to generate an amount of heat in situ when the substrate contacts a treatment surface separate from the device to bring the alkali metal in contact with water present at the treatment surface . a substrate having a first surface and a second surface, and an alkali metal in contact with the substrate , wherein the alkali metal is a neat alkali metal selected from sodium and potassium and present in an amount sufficient to generate an amount of heat in situ when the substrate contacts a treatment surface separate from the device to bring the alkali metal in contact with water present at the treatment surface .
An oriented polymeric sheet comprising a photochromic-dichroic material, wherein the sheet exhibits dichroism in an activated state, wherein the photochromic-dichroic material comprises a photochromic-dichroic compound, wherein the sheet comprising the photochromic-dichroic material is oriented to align the photochromic-dichroic material by extruding, by stretching, by calendering, by blowing and/or by molding; characterised in that the sheet comprises an elastomeric polymer.
A stereotactic template for facilitating a surgical procedure, said surgical procedure being spinal surgery, wherein said template comprises at least two hollow trajectory guides sized to receive an instrument for percutaneous introduction into the human body, wherein said template comprises an upper surface and a lower surface wherein at least part of the lower surface of the template is shaped to match an outer surface of a patient's anatomy, namely the skin contour, wherein the template comprises one or more radio-opaque markers characterised in that the trajectory guides are additional radio-opaque markers. wherein said template comprises an upper surface and a lower surface wherein at least part of the lower surface of the template is shaped to match an outer surface of a patient's anatomy, namely the skin contour, wherein the template comprises one or more radio-opaque markers characterised in that the trajectory guides are additional radio-opaque markers.
A method for sealing a lost circulation zone of a subterranean well , the method including: extending a drill string into the subterranean well, the drill string having an ultraviolet system , an actuator , and a fluid flow path ; instructing the actuator to transmit an on signal to the ultraviolet system to switch the ultraviolet system to an on condition, where in the on condition the ultraviolet system generates ultraviolet light directed towards the fluid flow path of the drill string; delivering a loss circulation material into the fluid flow path of the drill string, the loss circulation material having an oligomer , a monomer , and a photo-initiator ; exposing the loss circulation material to the ultraviolet light to activate the loss circulation material; and delivering the loss circulation material to the lost circulation zone; where instructing the actuator to transmit the on signal to the ultraviolet system to switch the ultraviolet system to the on condition includes rotating the drill string in a predetermined on signal pattern. extending a drill string into the subterranean well, the drill string having an ultraviolet system , an actuator , and a fluid flow path ; instructing the actuator to transmit an on signal to the ultraviolet system to switch the ultraviolet system to an on condition, where in the on condition the ultraviolet system generates ultraviolet light directed towards the fluid flow path of the drill string; delivering a loss circulation material into the fluid flow path of the drill string, the loss circulation material having an oligomer , a monomer , and a photo-initiator ; exposing the loss circulation material to the ultraviolet light to activate the loss circulation material; and delivering the loss circulation material to the lost circulation zone; where instructing the actuator to transmit the on signal to the ultraviolet system to switch the ultraviolet system to the on condition includes rotating the drill string in a predetermined on signal pattern.