mhurhangee/patent-ind-claim-en huggingface dataset:
A mouthpiece for providing non-invasive neuromodulation to a patient, the mouthpiece comprising: an elongated housing positionable in an oral cavity and having an anterior region with a substantially constant first width and a posterior region with a substantially constant second width, the elongated housing having a non-planar exterior top surface and a transition region connecting the anterior region and posterior region, the transition region having a width that varies smoothly between the first width and the second width; a positioning pad attached to the top surface of the housing such that, in use, the patient can bite down on the positioning pad to secure a position of the mouthpiece in which the posterior region of the mouthpiece rests behind the patient's teeth; and a printed circuit board mounted to a bottom portion of the elongated housing, the printed circuit board having a plurality of electrodes for delivering subcutaneous local electrical stimulation to the patient's tongue, wherein the center of gravity of the mouthpiece is located in the posterior region. an elongated housing positionable in an oral cavity and having an anterior region with a substantially constant first width and a posterior region with a substantially constant second width, the elongated housing having a non-planar exterior top surface and a transition region connecting the anterior region and posterior region, the transition region having a width that varies smoothly between the first width and the second width; a positioning pad attached to the top surface of the housing such that, in use, the patient can bite down on the positioning pad to secure a position of the mouthpiece in which the posterior region of the mouthpiece rests behind the patient's teeth; and a printed circuit board mounted to a bottom portion of the elongated housing, the printed circuit board having a plurality of electrodes for delivering subcutaneous local electrical stimulation to the patient's tongue, wherein the center of gravity of the mouthpiece is located in the posterior region.
Device for logging the tensile force in a tensioning belt with - a holding device for holding a spring element - an elastically deformable spring element that is held by the holding device and on which a section of the tensioning belt can absorb forces and elastically deform the spring element , wherein the ends of the spring element are brought closer to one another when the tensile force increases and - an electronic sensor unit with - a sensor arrangement that measures the excursion of the spring element and generates a data signal, - an emitter for transmitting the data signal to a receiving unit, - a microprocessor that is connected with the sensor arrangement and the emitter and - an energy source for supplying the electronic sensor unit with current and - an electronic receiving unit for receiving the data signal from the emitter with - a receiver - a display for displaying the data signal and - a microprocessor that is connected with the receiver and the display, wherein a specific data signal can be generated by the sensor arrangement for each specific excursion of the spring element and the specific data signals can be detected at any time in the electronic receiving unit, wherein the specific data signals can be stored and called up at any time in the electronic receiving unit. - a holding device for holding a spring element - an elastically deformable spring element that is held by the holding device and on which a section of the tensioning belt can absorb forces and elastically deform the spring element , wherein the ends of the spring element are brought closer to one another when the tensile force increases and - an electronic sensor unit with - a sensor arrangement that measures the excursion of the spring element and generates a data signal, - an emitter for transmitting the data signal to a receiving unit, - a microprocessor that is connected with the sensor arrangement and the emitter and - an energy source for supplying the electronic sensor unit with current and - an electronic receiving unit for receiving the data signal from the emitter with - a receiver - a display for displaying the data signal and - a microprocessor that is connected with the receiver and the display, - a sensor arrangement that measures the excursion of the spring element and generates a data signal, - an emitter for transmitting the data signal to a receiving unit, - a microprocessor that is connected with the sensor arrangement and the emitter and - an energy source for supplying the electronic sensor unit with current and - an electronic receiving unit for receiving the data signal from the emitter with - a receiver - a display for displaying the data signal and - a microprocessor that is connected with the receiver and the display, - a receiver - a display for displaying the data signal and - a microprocessor that is connected with the receiver and the display,
A fixing assembly comprising: a wire rack including a vertical frame and a horizontal frame ; a slide rail including a fixed rail coupled to the wire rack and a movable rail disposed on the fixed rail to move in a sliding manner; and a fixing unit which fixes the fixed rail to the wire rack , wherein the fixing unit includes a first fixing clip provided at one side of the fixed rail and a second fixing clip provided at the other side of the fixed rail and has a structure in which the first fixing clip is laterally fixed to the horizontal frame and then the second fixing clip is vertically fixed to the horizontal frame , wherein the first fixing clip includes: a plate part which is in contact with and coupled to one surface of the fixed rail ; a lateral fixing part formed on the plate part and including a first coupling part and a second coupling part coupled to angular end portions of the horizontal frame ; and a horizontal fixing part formed on the plate part and including a first bent part and a second bent part which are supported by a horizontal part of the horizontal frame , characterized in that the lateral fixing part includes an auxiliary support part formed to be supported by the vertical frame at an end portion of the lateral fixing part . a wire rack including a vertical frame and a horizontal frame ; a slide rail including a fixed rail coupled to the wire rack and a movable rail disposed on the fixed rail to move in a sliding manner; and a fixing unit which fixes the fixed rail to the wire rack , wherein the fixing unit includes a first fixing clip provided at one side of the fixed rail and a second fixing clip provided at the other side of the fixed rail and has a structure in which the first fixing clip is laterally fixed to the horizontal frame and then the second fixing clip is vertically fixed to the horizontal frame , wherein the first fixing clip includes: a plate part which is in contact with and coupled to one surface of the fixed rail ; a lateral fixing part formed on the plate part and including a first coupling part and a second coupling part coupled to angular end portions of the horizontal frame ; and a horizontal fixing part formed on the plate part and including a first bent part and a second bent part which are supported by a horizontal part of the horizontal frame , characterized in that the lateral fixing part includes an auxiliary support part formed to be supported by the vertical frame at an end portion of the lateral fixing part . a plate part which is in contact with and coupled to one surface of the fixed rail ; a lateral fixing part formed on the plate part and including a first coupling part and a second coupling part coupled to angular end portions of the horizontal frame ; and a horizontal fixing part formed on the plate part and including a first bent part and a second bent part which are supported by a horizontal part of the horizontal frame , characterized in that the lateral fixing part includes an auxiliary support part formed to be supported by the vertical frame at an end portion of the lateral fixing part .
A polycarbonate resin composition comprising: a polycarbonate component, which comprises an aromatic polycarbonate resin and a copolymerized polycarbonate resin comprising a repeat unit represented by Formula 1 and a repeat unit represented by Formula 2; and a flame retardant, the polycarbonate resin composition having: a scratch width of 310 μm or less as measured by Ball-type Scratch Profile (BSP) test; a pencil hardness rating of F or higher; a flame retardancy level of V-0 or higher as measured on a 2.0 mm thick specimen according to UL94; and a transmittance of 80% or more as measured in accordance, with ASTM D1003, wherein R 1 and R 2 are each independently a substituted or unsubstituted C 1 to C 6 alkyl group, and a and b are each independently an integer from 1 to 4; wherein the flame retardant is present in an amount of 5 parts by weight to 40 parts by weight based on 100 parts by weight of the polycarbonate component. a polycarbonate component, which comprises an aromatic polycarbonate resin and a copolymerized polycarbonate resin comprising a repeat unit represented by Formula 1 and a repeat unit represented by Formula 2; and a flame retardant, the polycarbonate resin composition having: a scratch width of 310 μm or less as measured by Ball-type Scratch Profile (BSP) test; a pencil hardness rating of F or higher; a flame retardancy level of V-0 or higher as measured on a 2.0 mm thick specimen according to UL94; and a transmittance of 80% or more as measured in accordance, with ASTM D1003, wherein R 1 and R 2 are each independently a substituted or unsubstituted C 1 to C 6 alkyl group, and a and b are each independently an integer from 1 to 4; wherein the flame retardant is present in an amount of 5 parts by weight to 40 parts by weight based on 100 parts by weight of the polycarbonate component. wherein R 1 and R 2 are each independently a substituted or unsubstituted C 1 to C 6 alkyl group, and a and b are each independently an integer from 1 to 4; wherein the flame retardant is present in an amount of 5 parts by weight to 40 parts by weight based on 100 parts by weight of the polycarbonate component.
A semiconductor nanocrystal particle comprising: a core comprising a first semiconductor nanocrystal, a first shell surrounding the core, the first shell comprising a second semiconductor nanocrystal that has a different composition from the first semiconductor nanocrystal, and a second shell surrounding the first shell, the second shell comprising a third semiconductor nanocrystal that has a different composition from the second semiconductor nanocrystal, wherein the first semiconductor nanocrystal comprises zinc and sulfur; wherein the second semiconductor nanocrystal comprises zinc and selenium; wherein the third semiconductor nanocrystal comprises zinc and sulfur; wherein an energy bandgap of the second semiconductor nanocrystal is less than an energy bandgap of the first semiconductor nanocrystal, and the energy bandgap of the second semiconductor nanocrystal is less than an energy bandgap of the third semiconductor nanocrystal; wherein the semiconductor nanocrystal particle does not comprise cadmium; wherein a maximum photoluminescent peak of the semiconductor nanocrystal particle is present in a range between 400 nanometers and 500 nanometers; and wherein a quantum efficiency of the semiconductor nanocrystal particle is greater than or equal to 60%. a core comprising a first semiconductor nanocrystal, a first shell surrounding the core, the first shell comprising a second semiconductor nanocrystal that has a different composition from the first semiconductor nanocrystal, and a second shell surrounding the first shell, the second shell comprising a third semiconductor nanocrystal that has a different composition from the second semiconductor nanocrystal, a first semiconductor nanocrystal, a first shell surrounding the core, the first shell comprising a second semiconductor nanocrystal that has a different composition from the first semiconductor nanocrystal, and a second shell surrounding the first shell, the second shell comprising a third semiconductor nanocrystal that has a different composition from the second semiconductor nanocrystal, wherein the first semiconductor nanocrystal comprises zinc and sulfur; wherein the second semiconductor nanocrystal comprises zinc and selenium; wherein the third semiconductor nanocrystal comprises zinc and sulfur; wherein an energy bandgap of the second semiconductor nanocrystal is less than an energy bandgap of the first semiconductor nanocrystal, and the energy bandgap of the second semiconductor nanocrystal is less than an energy bandgap of the third semiconductor nanocrystal; wherein the semiconductor nanocrystal particle does not comprise cadmium; wherein a maximum photoluminescent peak of the semiconductor nanocrystal particle is present in a range between 400 nanometers and 500 nanometers; and wherein a quantum efficiency of the semiconductor nanocrystal particle is greater than or equal to 60%.
Screw comprising: an axially extending shaft portion ; a thread at the shaft portion which comprises radially extending thread pitches originating from the shaft portion ; a screw tip portion which is adjoining the shaft portion ; at least one first scraping edge at the screw tip portion ; at least one second scraping edge in a region of the shaft portion which is adjacent to the screw tip portion ; wherein the at least one first scraping edge and the at least one second scraping edge are spaced from each other and extend in an axial direction over different regions of the screw ; wherein ends of the at least one first scraping edge and the at least one second scraping edge which are facing each other are arranged within the same thread pitch . an axially extending shaft portion ; a thread at the shaft portion which comprises radially extending thread pitches originating from the shaft portion ; a screw tip portion which is adjoining the shaft portion ; at least one first scraping edge at the screw tip portion ; at least one second scraping edge in a region of the shaft portion which is adjacent to the screw tip portion ; wherein the at least one first scraping edge and the at least one second scraping edge are spaced from each other and extend in an axial direction over different regions of the screw ; wherein ends of the at least one first scraping edge and the at least one second scraping edge which are facing each other are arranged within the same thread pitch .
An aircraft fuel tank inerting system , comprising: an inlet , configured to be in fluid communication with an ullage of a fuel tank ; an oxygen absorption unit , in communication with said inlet , and comprising: a chamber , a temperature reversible oxygen absorption medium within said chamber ; and a vent for discharging oxygen from the inerting system , wherein the reversible oxygen absorption medium is a medium which absorbs oxygen by chemisorption, characterized in that , the oxygen absorption unit further comprising a temperature controller for selectively heating the medium in a desorbing configuration in which the oxygen absorption unit is isolated from the fuel tank ullage and cooling the medium in an absorbing configuration in which the oxygen absorption unit is in fluid communication with the fuel tank ullage. an inlet , configured to be in fluid communication with an ullage of a fuel tank ; an oxygen absorption unit , in communication with said inlet , and comprising: a chamber , a temperature reversible oxygen absorption medium within said chamber ; and a chamber , a temperature reversible oxygen absorption medium within said chamber ; and a vent for discharging oxygen from the inerting system , wherein the reversible oxygen absorption medium is a medium which absorbs oxygen by chemisorption, characterized in that , the oxygen absorption unit further comprising a temperature controller for selectively heating the medium in a desorbing configuration in which the oxygen absorption unit is isolated from the fuel tank ullage and cooling the medium in an absorbing configuration in which the oxygen absorption unit is in fluid communication with the fuel tank ullage.
A weft insertion method for an air jet loom , wherein the loom comprises a weft insertion device including: a first main nozzle (N1) for weft insertion; and a second main nozzle that is arranged upstream from the first main nozzle in a weft insertion direction and is configured to function as an auxiliary main nozzle, the first main nozzle is connected to a first valve device (V1) by a first piping (H1), the second main nozzle is connected to a second valve device by a second piping (H2) shorter than the first piping, the weft insertion device is configured to supply compressed air to each main nozzle with each valve device being in an open state over a jet period from a predetermined jet starting timing, and, in a predetermined initial jet period that begins at the jet starting timing, an operating state of the second valve device is put into a small flow rate state, in which a flow rate smaller than a steady flow rate is supplied. the loom comprises a weft insertion device including: a first main nozzle (N1) for weft insertion; and a second main nozzle that is arranged upstream from the first main nozzle in a weft insertion direction and is configured to function as an auxiliary main nozzle, a first main nozzle (N1) for weft insertion; and a second main nozzle that is arranged upstream from the first main nozzle in a weft insertion direction and is configured to function as an auxiliary main nozzle, the first main nozzle is connected to a first valve device (V1) by a first piping (H1), the second main nozzle is connected to a second valve device by a second piping (H2) shorter than the first piping, the weft insertion device is configured to supply compressed air to each main nozzle with each valve device being in an open state over a jet period from a predetermined jet starting timing, and, in a predetermined initial jet period that begins at the jet starting timing, an operating state of the second valve device is put into a small flow rate state, in which a flow rate smaller than a steady flow rate is supplied.
A chlorinated poly(propylene carbonate)/biomass composite material, comprising: 3 wt% to 57 wt% of a chlorinated poly(propylene carbonate); 40 wt% to 94 wt% of a biomaterial; 2 wt% to 20 wt% of a rosin or a rosin derivative; 0 wt% to 1 wt% of an antioxidant; and 0 wt% to 5 wt% of a filler, wherein a sum of amounts of all components is 100 wt%. 3 wt% to 57 wt% of a chlorinated poly(propylene carbonate); 40 wt% to 94 wt% of a biomaterial; 2 wt% to 20 wt% of a rosin or a rosin derivative; 0 wt% to 1 wt% of an antioxidant; and 0 wt% to 5 wt% of a filler, wherein a sum of amounts of all components is 100 wt%.
A first device management server (DMG-1) in a service layer of an M2M network, the first device management server (DMG-1) comprising a processor and a memory, the first device management server (DMG-1) further including computer-executable instructions stored in the memory of the first device management server (DMG-1) which, when executed by the processor of the first device management server (DMG-1), cause the first device management server (DMG-1) to: receive, from a second device management server (DMG-2) in the service layer of the M2M network, a delegation request message indicating a request to transfer authority to manage a client (DMC) from the second device management server (DMG-2) or from a third device management server (DMS-1) in a management layer of the M2M network, to the first device management server (DMG-1); send, to the second device management server (DMG-2), a delegation response message indicating acceptance of the transfer of authority to manage the client (DMC); establish a device management session with the client (DMC); send, to the second device management server (DMG-2), a delegation complete message indicating that the transfer of authority from the second device management server (DMG-2) or the third device management server (DMS-1) to the first device management server (DMG-1) is complete. receive, from a second device management server (DMG-2) in the service layer of the M2M network, a delegation request message indicating a request to transfer authority to manage a client (DMC) from the second device management server (DMG-2) or from a third device management server (DMS-1) in a management layer of the M2M network, to the first device management server (DMG-1); send, to the second device management server (DMG-2), a delegation response message indicating acceptance of the transfer of authority to manage the client (DMC); establish a device management session with the client (DMC); send, to the second device management server (DMG-2), a delegation complete message indicating that the transfer of authority from the second device management server (DMG-2) or the third device management server (DMS-1) to the first device management server (DMG-1) is complete.
A method for separating at least one charged substance by means of adsorption on and electrodesorption from a polymer membrane having a first flat and porous coating of metal at least on a first side of the polymer membrane, comprising the following steps a. Preparation of the polymer membrane; b. Bringing the polymer membrane into contact with at least one first fluid, in particular in a first volume, containing said at least one charged substance and adsorbing said at least one charged substance onto the polymer membrane; c. Bringing the polymer membrane and a counter-electrode into contact with said at least one first and/or at least one second fluid, in particular in a first volume; d. Applying a first DC voltage between the first metal coating of the polymer membrane and the counter-electrode to desorb said at least one charged substance from the polymer membrane; characterised in that the polymer membrane is a chemically charged polymer membrane and in that the DC voltage is applied in the opposite direction to the charge of the polymer membrane. a. Preparation of the polymer membrane; b. Bringing the polymer membrane into contact with at least one first fluid, in particular in a first volume, containing said at least one charged substance and adsorbing said at least one charged substance onto the polymer membrane; c. Bringing the polymer membrane and a counter-electrode into contact with said at least one first and/or at least one second fluid, in particular in a first volume; d. Applying a first DC voltage between the first metal coating of the polymer membrane and the counter-electrode to desorb said at least one charged substance from the polymer membrane;