mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode assembly manufacturing method comprising: coating a conductive adhesive solution including a gas generation material on a metal plate material for an electrode tab ; forming a releasing film on the metal plate material for the electrode tab to cover the coated conductive adhesive solution; drying the conductive adhesive solution to be changed into a conductive adhesive part ; slitting the metal plate material for the electrode tab to form a plurality of strips ; cutting a plurality of strips to manufacture a plurality of electrode tab that the conductive adhesive part and the releasing film are stacked; removing the releasing film from the electrode tab ; and adhering the electrode tab from which the releasing film is removed to one surface of the electrode current collector . coating a conductive adhesive solution including a gas generation material on a metal plate material for an electrode tab ; forming a releasing film on the metal plate material for the electrode tab to cover the coated conductive adhesive solution; drying the conductive adhesive solution to be changed into a conductive adhesive part ; slitting the metal plate material for the electrode tab to form a plurality of strips ; cutting a plurality of strips to manufacture a plurality of electrode tab that the conductive adhesive part and the releasing film are stacked; removing the releasing film from the electrode tab ; and adhering the electrode tab from which the releasing film is removed to one surface of the electrode current collector .
A method comprising: receiving by a wireless device : first parameters of a first physical uplink control channel, PUCCH, resource, of an uplink bandwidth part, BWP, for first channel state information, CSI, reports of a first downlink BWP of a cell, wherein at least one of the first CSI reports comprises a value of layer 1 reference signal received power; and second parameters of a second PUCCH resource, of the uplink BWP, for second CSI reports of a second downlink BWP of the cell; transmitting the first CSI reports via the first PUCCH resource; switching from the first downlink BWP to the second downlink BWP as an active BWP; and transmitting, based on the switching, the second CSI reports via the second PUCCH resource. receiving by a wireless device : first parameters of a first physical uplink control channel, PUCCH, resource, of an uplink bandwidth part, BWP, for first channel state information, CSI, reports of a first downlink BWP of a cell, wherein at least one of the first CSI reports comprises a value of layer 1 reference signal received power; and second parameters of a second PUCCH resource, of the uplink BWP, for second CSI reports of a second downlink BWP of the cell; first parameters of a first physical uplink control channel, PUCCH, resource, of an uplink bandwidth part, BWP, for first channel state information, CSI, reports of a first downlink BWP of a cell, wherein at least one of the first CSI reports comprises a value of layer 1 reference signal received power; and second parameters of a second PUCCH resource, of the uplink BWP, for second CSI reports of a second downlink BWP of the cell; transmitting the first CSI reports via the first PUCCH resource; switching from the first downlink BWP to the second downlink BWP as an active BWP; and transmitting, based on the switching, the second CSI reports via the second PUCCH resource.
Use of an apparatus for manufacturing at least one cutting-edge structure comprising: a first part and a second part and a naturally derived material, wherein the first part is a plunger structure comprising a plunger element , a plunger body and a relief portion disposed between the plunger body and the plunger element , and the second part is a cavity structure , the relief portion providing a point or line contact between the plunger structure and the cavity structure to mold said naturally derived material into the cutting-edge structure.
A tray (1; 1'; 1") configured to be provided on a base station of a bioreactor system , said tray (1; 1': 1") comprising a bottom (7; 7') and surrounding side walls (9; 9') and being configured to hold a bioreactor bag , said bottom (7; 7') comprising at least two bottom parts (7a, 7b; 8a, 8b, 8c; 8a', 8b', 8c'), whereof one is a middle part (7a; 8b: 8b') of the bottom, wherein at least one of the bottom parts (7a, 7b; 8a, 8b, 8c; 8a', 8b', 8c') is movable into at least a first and a second position, wherein said first position provides the bottom parts (7a, 7b; 8a, 8b, 8c; 8a', 8b', 8c') substantially flush with each other providing a substantially plane bottom (7; 7') of the tray (1; 1'; 1") and said second position provides a bottom (7; 7') of the tray having a recessed middle part (7a; 8b; 8b').
A method of charging a vehicle in a facility having a parking and charging system including a plurality of parking spaces (506a-c, 806a-c) and a plurality of charging stations (504a-c, 604, 801a-c), the method comprising: determining distances between the vehicle within the facility and each charging station of the plurality of charging stations (504a-c, 604, 801a-c); the distances determined using signals communicated directly between the vehicle and each charging station of the plurality of the charging stations; and choosing, by the vehicle and based on the determined distances, to communicate with a first charging station of the plurality of charging stations (504a-c. 604, 801a-c). determining distances between the vehicle within the facility and each charging station of the plurality of charging stations (504a-c, 604, 801a-c); the distances determined using signals communicated directly between the vehicle and each charging station of the plurality of the charging stations; and choosing, by the vehicle and based on the determined distances, to communicate with a first charging station of the plurality of charging stations (504a-c. 604, 801a-c).
Method for controlling a cleaning robot , which is configured to clean a predetermined floor area , wherein the method comprises the following steps: - determining a section of the floor area , the processing of which by the cleaning robot is to be different from the remaining floor area; - deactivating a cleaning facility of the cleaning robot ; - controlling the cleaning robot to travel along a boundary of the section ; - detecting a user-controlled confirmation of the boundary travelled along; and - enabling the cleaning facility, characterised in that - the cleaning robot is controlled along the boundary in such a manner that it or the cleaning facility does not touch the determined section . - determining a section of the floor area , the processing of which by the cleaning robot is to be different from the remaining floor area; - deactivating a cleaning facility of the cleaning robot ; - controlling the cleaning robot to travel along a boundary of the section ; - detecting a user-controlled confirmation of the boundary travelled along; and - enabling the cleaning facility, characterised in that - the cleaning robot is controlled along the boundary in such a manner that it or the cleaning facility does not touch the determined section .
A nuclear magnetic resonance apparatus comprising: a drill collar having a flow line disposed therein, for the flow of liquids within the flow line; a first magnet embedded in the drill collar ; a second magnet axially separated from the first magnet ; an antenna disposed between the first magnet and second magnet ; a magnetically permeable member positioned between the first magnet and the second magnet , wherein the member comprises a plurality of rings ; characterized in that said magnetically permeable member is disposed within the flow line . a drill collar having a flow line disposed therein, for the flow of liquids within the flow line; a first magnet embedded in the drill collar ; a second magnet axially separated from the first magnet ; an antenna disposed between the first magnet and second magnet ; a magnetically permeable member positioned between the first magnet and the second magnet , wherein the member comprises a plurality of rings ; characterized in that said magnetically permeable member is disposed within the flow line .
A method for removing carbonyl sulphide from an untreated natural gas stream comprising subjecting the untreated natural gas stream to contact with an absorption liquid so as to provide an absorbed gas-containing liquid, and bringing the absorbed gas-containing liquid in contact with a catalyst suitable for hydrolyzing carbonyl sulphide.
A grain-oriented electrical steel sheet comprising: closure domains, each containing a discontinuous region at a part thereof and extending at an angle within 30° with respect to a transverse direction of the steel sheet, wherein a closure domain overlapping portion in the discontinuous region on one surface of the steel sheet has a length α in millimeters (mm) in the transverse direction that is longer than a length β in mm in the transverse direction of the closure domain overlapping portion on the other surface of the steel sheet, and the length α in mm satisfies the following Expression and the length β in mm satisfies the following Expression : 0.5 mm ≤ α mm ≤ 5.0 mm 0.2 α mm ≤ β mm ≤ 0.8 α mm wherein α and β are determined by a magnet viewer capable of visualizing a magnetic domain pattern using magnetic colloid.
A filter having desired passband characteristics, in particular a desired cut-off frequency (f 1 ), a desired passband attenuation degree (A) and a desired frequency width Δfb(M) of the passband, comprising -) a basic low-pass filter (L 0 ) with passband width Δfb and having an impulse response function (ψ) configured by a piecewise polynomial with a finite support and using values of the impulse response function (ψ) at connection points between the polynomials as filter coefficients c(k), -) a basic high-pass filter (H 0 ) with passband width Δfb and having filter coefficients b(k) obtained by inverting the sign of the filter coefficients c(k) alternately, and -) upsampled low-pass filters (L p ) and upsampled high-pass filters (H q ) combined in a cascade connection, characterized in that -) the upsampled low-pass filters (L p ) are formed by upsampling the basic low-pass filter (L 0 ) by all values of p (p=1,2,...P-1), with p being an upsampling factor in the time domain and P-1 being smaller than M, and -) the upsampled high-pass filters (H q ) are formed by upsampling the basic high-pass filter (H 0 ) by all values of q (q=1,2,... Q-1), with q being an upsampling factor in the time domain and Q-1 being smaller than M, with the maximum upsampling factor M+1 being determined by the ratio of the passband width Δfb of the basic filter to the desired passband width Δfb(M). -) a basic low-pass filter (L 0 ) with passband width Δfb and having an impulse response function (ψ) configured by a piecewise polynomial with a finite support and using values of the impulse response function (ψ) at connection points between the polynomials as filter coefficients c(k), -) a basic high-pass filter (H 0 ) with passband width Δfb and having filter coefficients b(k) obtained by inverting the sign of the filter coefficients c(k) alternately, and -) upsampled low-pass filters (L p ) and upsampled high-pass filters (H q ) combined in a cascade connection, -) the upsampled low-pass filters (L p ) are formed by upsampling the basic low-pass filter (L 0 ) by all values of p (p=1,2,...P-1), with p being an upsampling factor in the time domain and P-1 being smaller than M, and -) the upsampled high-pass filters (H q ) are formed by upsampling the basic high-pass filter (H 0 ) by all values of q (q=1,2,... Q-1), with q being an upsampling factor in the time domain and Q-1 being smaller than M,
A mould for moulding an insulator for a gas-insulated switchgear with one or more inserts, the mould comprising a mould body defining a disc-shaped cavity corresponding to the shape of the insulator , and at least one insert holder for holding an insert within the mould body , wherein each insert holder is movably supported such it can move relative to the mould body in a direction of shrinkage of the insulator , and in that the mould further comprises a biasing means to bias each insert holder to a first position relative to the mould body .
A cleaner comprising: a suction unit that guides dust and air; a main body that includes a dust separation unit for separating dust from air guided through the suction unit and a suction motor to generate a suction force that suctions air, a main body terminal that is mounted on the main body ; a handle unit that is slide-coupled to the main body ; and a handle terminal mounted on the handle unit and connected to the main body terminal when the handle unit is slide-coupled to the main body , characterized in that the main body includes a wire hole through which a wire for supplying power to the suction motor passes. a suction unit that guides dust and air; a main body that includes a dust separation unit for separating dust from air guided through the suction unit and a suction motor to generate a suction force that suctions air, a main body terminal that is mounted on the main body ; a handle unit that is slide-coupled to the main body ; and a handle terminal mounted on the handle unit and connected to the main body terminal when the handle unit is slide-coupled to the main body , characterized in that the main body includes a wire hole through which a wire for supplying power to the suction motor passes.
A beam scanning system for sensing a biological substance flowing in a microfluidic pipe , comprising: a light source configured to generate a supercontinuum light beam; an optical device configured to receive the supercontinuum light beam for guidance thereof to at least two output ports ; and a power supply unit configured to supply voltage to one output port of said at least two output ports to change a phase of the light beam from said one output port, wherein the optical device changes a location of an interference pattern of the light beam according to changing the phase of the light beam, and wherein the system further comprises a beam processing unit configured to receive light beams that have traversed across the microfluidic pipe and to form biological information on the biological substance based on the received beams. a light source configured to generate a supercontinuum light beam; an optical device configured to receive the supercontinuum light beam for guidance thereof to at least two output ports ; and a power supply unit configured to supply voltage to one output port of said at least two output ports to change a phase of the light beam from said one output port, wherein the optical device changes a location of an interference pattern of the light beam according to changing the phase of the light beam, and wherein the system further comprises a beam processing unit configured to receive light beams that have traversed across the microfluidic pipe and to form biological information on the biological substance based on the received beams.
A method, carried out by a configuration controller , of making changes to configuration of a first service area of a communications network having a number of service areas capable of providing at least one service to at least one UE, User Equipment, the network having a plurality of VNFs, Virtual Network Functions, used in providing the services to the UEs according to the configuration, and the method having steps of: in the case of a proposed change to the configuration of the first service area which could negatively impact at least one service provided to a first of the UEs using a first of the VNFs, the first VNF comprising virtualised parts and physical network resources, if the change is made while the first VNF is in use, instantiating at least one substitute VNF corresponding to the first VNF, wherein the step of instantiating the substitute VNF comprises: determining if there is sufficient capacity to allocate the physical network resources for use by the substitute VNF without affecting other UEs and if the capacity is insufficient, having a step of reducing capacity allocated to other UEs, to provide more capacity for the substitute VNF; and allocating physical network resources for use by the substitute VNF; transferring the first UE to use the substitute VNF instead of using the first VNF, and making the proposed change to the configuration with respect to one of these VNFs, the first VNF or the substitute VNF, while the service to the first UE is maintained using the other of these VNFs. in the case of a proposed change to the configuration of the first service area which could negatively impact at least one service provided to a first of the UEs using a first of the VNFs, the first VNF comprising virtualised parts and physical network resources, if the change is made while the first VNF is in use, instantiating at least one substitute VNF corresponding to the first VNF, wherein the step of instantiating the substitute VNF comprises: determining if there is sufficient capacity to allocate the physical network resources for use by the substitute VNF without affecting other UEs and if the capacity is insufficient, having a step of reducing capacity allocated to other UEs, to provide more capacity for the substitute VNF; and allocating physical network resources for use by the substitute VNF; determining if there is sufficient capacity to allocate the physical network resources for use by the substitute VNF without affecting other UEs and if the capacity is insufficient, having a step of reducing capacity allocated to other UEs, to provide more capacity for the substitute VNF; and allocating physical network resources for use by the substitute VNF; transferring the first UE to use the substitute VNF instead of using the first VNF, and making the proposed change to the configuration with respect to one of these VNFs, the first VNF or the substitute VNF, while the service to the first UE is maintained using the other of these VNFs.
Converter, especially for an ion propulsion system, having a bridge circuit with a first and second bridge circuit terminal, the bridge circuit comprising four switches ( SA , SB , SC , SD ) each having a first and second terminal, the first terminal of each of a first ( SA ) and third ( SC ) switch respectively being connected to the first bridge circuit terminal, the second terminal of the first switch ( SA ) being connected to the first terminal of a second switch ( SB ), the second terminal of the third switch ( SC ) being connected to the first terminal of a fourth switch ( SD ), and the second terminal of the second and fourth switch ( SB , SD ) respectively being connected to the second bridge circuit terminal, a storage inductance ( LS ) and a high-voltage transformer (HVT) having a primary and a secondary winding, the primary winding and the storage inductor ( LS ) being connected in series with the second terminal of the first switch ( SA ) and the first terminal of the fourth switch ( SD ), and the secondary winding being connected to an output of the converter, characterised by a switch control unit (SCU) adapted to open or close the fourth ( SD ) switch by a control time (tc) delayed with respect to the first switch ( SA ), and the switch control unit (SCU) being adapted to determine the control time (tc) so that it corresponds at most to one tenth of the time interval which elapses between opening and closing of the same switch ( SA , SD ).
An air electrode or water electrolysis anode for a metal-air battery or water electrolysis apparatus, comprising an electron-conductive material represented by LaNi 1-x-y Cu x Fe y O 3-δ , where x > 0, y > 0, x + y < 1, and 0 ≤ δ ≤ 0.4, characterized in that the electron conductive material further is an air electrode catalyst or a water electrolysis anode catalyst, wherein the air electrode or water electrolysis anode further comprises a hydroxide-ion conductive material, and wherein the air electrode or water electrolysis anode comprises the electron-conductive material in an amount of 15 to 70 vol.% based on the total amount of the electron-conductive material and the hydroxide-ion conductive material.
Particulate material of the composition Li 1+x TM 1-x O 2 wherein x is in the range of from 0.1 to 0.2 and TM is a combination of elements according to general formula (I) (Ni a Co b Mn c ) 1-d M 1 d (I) wherein a is in the range of from 0.30 to 0.38, b being in the range of from zero to 0.05, c being in the range of from 0.60 to 0.70, and 0 < d ≤0.05, M 1 is selected from Al, Ti, Zr, Mo, Mg, B and combinations of at least two of the foregoing, a + b + c = 1 , wherein said particulate material has an average particle diameter D50 in the range of from 2 to 20 μm and wherein said particulate material has a pressed density in the range of from 2.75 to 3.2 g/cm 3 , determined at a pressure of 250 MPa. a is in the range of from 0.30 to 0.38, b being in the range of from zero to 0.05, c being in the range of from 0.60 to 0.70, and 0 < d ≤0.05, M 1 is selected from Al, Ti, Zr, Mo, Mg, B and combinations of at least two of the foregoing, a + b + c = 1 , wherein said particulate material has an average particle diameter D50 in the range of from 2 to 20 μm and wherein said particulate material has a pressed density in the range of from 2.75 to 3.2 g/cm 3 , determined at a pressure of 250 MPa.
A system , comprising two films that are arranged to move adjacent one another on outer surfaces of respective rollers positioned with respect to one another to define a gap between the films that, in turn, defines a thickness for a layer of a material to be coated on one of the films , characterized in that a first one of the rollers is positioned relative a second one of the rollers by a bearing biased by a first pair of parallel springs and is adjustable in position with respect to the second one of the rollers by a pair of linear actuators configured to translate respective arms which support the first pair of parallel springs .