mhurhangee/patent-ind-claim-en huggingface dataset:
A laser device for generating an optical wave comprising at least two frequencies, such laser device comprising: - a first element comprising a gain region located between one first end defined by a first mirror and a second end defined by an exit region, - a second mirror , distinct from the first element , and arranged so as to form with the first mirror an optical cavity including the gain region and a gap between the exit region and the second mirror , - means for pumping the gain region so as to generate the optical wave , characterized in that the laser device further comprises: - means for shaping the light intensity of the optical wave arranged for selecting at least two transverse modes of the optical wave , said means for shaping the light intensity comprise at least one mask, each mask being patterned with a surface having a non-uniform absorbance, said surface including at least one absorbing area and at least one transmitting area; and - means for shaping the longitudinal and transversal phase profile of the optical wave and arranged for adjusting the frequency difference between at least two transverse modes of the optical wave , said means for shaping the phase profile comprise at least one photonic crystal and/or diffraction grating located at least at one end of the gain region and patterned in order to shape the transverse phase and the transverse intensity of the optical wave . - a first element comprising a gain region located between one first end defined by a first mirror and a second end defined by an exit region, - a second mirror , distinct from the first element , and arranged so as to form with the first mirror an optical cavity including the gain region and a gap between the exit region and the second mirror , - means for pumping the gain region so as to generate the optical wave , - means for shaping the light intensity of the optical wave arranged for selecting at least two transverse modes of the optical wave , said means for shaping the light intensity comprise at least one mask, each mask being patterned with a surface having a non-uniform absorbance, said surface including at least one absorbing area and at least one transmitting area; and - means for shaping the longitudinal and transversal phase profile of the optical wave and arranged for adjusting the frequency difference between at least two transverse modes of the optical wave , said means for shaping the phase profile comprise at least one photonic crystal and/or diffraction grating located at least at one end of the gain region and patterned in order to shape the transverse phase and the transverse intensity of the optical wave .
A battery pack , comprising: a plurality of battery modules having at least one battery cell and having heatsink units respectively provided to upper and lower sides thereof, the heatsink unit having a cooling channel through which a coolant flows; at least one crush beam provided between the plurality of battery modules ; a pack tray configured to support the at least one crush beam and the plurality of battery modules ; and a plurality of drain holes provided in the pack tray to discharge the coolant out of the battery pack when the coolant leaks, wherein the plurality of drain holes are formed in a bottom portion of a space between each battery module and the at least one crush beam , and wherein in the space between each battery module and the at least one crush beam , a guide channel for guiding the coolant toward the plurality of drain holes when the coolant of the heatsink unit provided to the upper side of each battery module leaks is formed. a plurality of battery modules having at least one battery cell and having heatsink units respectively provided to upper and lower sides thereof, the heatsink unit having a cooling channel through which a coolant flows; at least one crush beam provided between the plurality of battery modules ; a pack tray configured to support the at least one crush beam and the plurality of battery modules ; and a plurality of drain holes provided in the pack tray to discharge the coolant out of the battery pack when the coolant leaks, wherein the plurality of drain holes are formed in a bottom portion of a space between each battery module and the at least one crush beam , and wherein in the space between each battery module and the at least one crush beam , a guide channel for guiding the coolant toward the plurality of drain holes when the coolant of the heatsink unit provided to the upper side of each battery module leaks is formed.
A cutting tool comprising: a first blade ; a second blade pivotally coupled to the first blade , wherein the first blade and the second blade together perform a cutting action on an object placed therebetween; a top handle and a bottom handle which are operatively coupled with the second blade and the first blade respectively; a drive unit operatively coupled to at least one of the first blade and the second blade , wherein the drive unit is configured to selectively provide a supplemental motor force to assist a movement of at least one of the first blade and the second blade to perform the cutting action; and a rope operatively coupled to the drive unit , wherein the rope provides force for a movement of the first blade ; an adapter operatively coupling the first blade with the rope ; wherein the first blade is releasably coupled to the second blade and wherein the first blade is releasably coupled to a handle and wherein the first blade is releasably coupled to the adapter . a first blade ; a second blade pivotally coupled to the first blade , wherein the first blade and the second blade together perform a cutting action on an object placed therebetween; a top handle and a bottom handle which are operatively coupled with the second blade and the first blade respectively; a drive unit operatively coupled to at least one of the first blade and the second blade , wherein the drive unit is configured to selectively provide a supplemental motor force to assist a movement of at least one of the first blade and the second blade to perform the cutting action; and a rope operatively coupled to the drive unit , wherein the rope provides force for a movement of the first blade ; an adapter operatively coupling the first blade with the rope ; wherein the first blade is releasably coupled to the second blade and wherein the first blade is releasably coupled to a handle and wherein the first blade is releasably coupled to the adapter .
An electromechanical brake system for a road vehicle comprising a brake mechanism configured to apply braking to a wheel of a vehicle, or release braking of the wheel , depending on a position (X) of the brake mechanism ; an electric brake motor configured to transduce electrical power into mechanical power (Tm); and a force transmission chain configured to transmit (Tm→Tt→Fa) the mechanical power (Tm) from the electric brake motor to the brake mechanism for changing the position (X) of the brake mechanism ; characterised in that the electric brake motor is a high-voltage motor configured to receive a high voltage (HV) of at least two hundred volt. a brake mechanism configured to apply braking to a wheel of a vehicle, or release braking of the wheel , depending on a position (X) of the brake mechanism ; an electric brake motor configured to transduce electrical power into mechanical power (Tm); and a force transmission chain configured to transmit (Tm→Tt→Fa) the mechanical power (Tm) from the electric brake motor to the brake mechanism for changing the position (X) of the brake mechanism ; characterised in that the electric brake motor is a high-voltage motor configured to receive a high voltage (HV) of at least two hundred volt.
Motor-driven medical suction pump with a pump unit for generating a negative pressure with a housing which accommodates the pump unit therein, wherein the pump unit comprises a vacuum opening for the negative pressure to be generated by the pump unit and at least one further opening which communicates with the vacuum opening through the pump unit and which is connected to a sound damping chamber comprising an outlet opening , wherein the sound damping chamber is tightly connected to and encloses the further opening , wherein the further opening is provided opposite the outlet opening and characterized in that the further opening has a larger flow cross-section than the outlet opening
A system for optional dynamic longitudinal positioning of the rotational point of a ski boot in a ski binding on a cross-country or touring ski during use, characterized in that the system comprises: - an electrical actuator comprising an engine , - an energy source for the electrical actuator, and - a control system adapted to control the electrical actuator, wherein the electrical engine is adapted to move the rotational point by moving the ski binding , or parts thereof, when the electrical actuator receives a signal from the control system . - an electrical actuator comprising an engine , - an energy source for the electrical actuator, and - a control system adapted to control the electrical actuator,
A recombinant or chimeric FVIII protein comprising one or more ancestral mutations and a B-domain deletion, and wherein the protein sequence does not naturally occur; and wherein the protein has: an A1 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 22, 4, or 13; an A2 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 23, 5 or 14; an ap domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 25, 7, or 16; an A3 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 26, 8, or 17; a C1 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 27, 9, or 18; and a C2 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 28, 10 or 19. an A1 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 22, 4, or 13; an A2 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 23, 5 or 14; an ap domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 25, 7, or 16; an A3 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 26, 8, or 17; a C1 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 27, 9, or 18; and a C2 domain having an amino acid sequence having greater than 96% identity to SEQ ID NO: 28, 10 or 19.
A garment washing and/or drying machine comprising: a main body portion ; a drum located within the main body portion , the drum comprising an open end for receiving garments placed in the drum and a closed end for containing the garments within the drum, the closed end being opposite the open end and the drum comprising a side portion connecting the open end to the closed end , the drum configured for rotation about a rotational axis of the drum; the drum comprising at least one magnet located on the side portion of the drum, for magnetic interaction with a corresponding at least one electromagnet in the main body portion of the washing and/or drying machine ; and a controller for controlling electrical current supplied to the at least one electromagnet so as to control a magnetic field to which the at least one magnet on the drum is subjected, enabling the controller to control movement of the drum ; wherein the at least one magnet located on the side portion of the drum comprises a plurality of permanent magnets; characterized in that each of the plurality of magnets extends longitudinally along the side portion of the drum, between the closed end and the open end . a main body portion ; a drum located within the main body portion , the drum comprising an open end for receiving garments placed in the drum and a closed end for containing the garments within the drum, the closed end being opposite the open end and the drum comprising a side portion connecting the open end to the closed end , the drum configured for rotation about a rotational axis of the drum; the drum comprising at least one magnet located on the side portion of the drum, for magnetic interaction with a corresponding at least one electromagnet in the main body portion of the washing and/or drying machine ; and a controller for controlling electrical current supplied to the at least one electromagnet so as to control a magnetic field to which the at least one magnet on the drum is subjected, enabling the controller to control movement of the drum ; wherein the at least one magnet located on the side portion of the drum comprises a plurality of permanent magnets; characterized in that each of the plurality of magnets extends longitudinally along the side portion of the drum, between the closed end and the open end .
Monitoring device for monitoring and controlling activities of at least one gardening tool adapted for use in a garden within at least one activity zone , wherein the at least one gardening tool is of the type lawn mower, in particular configured as a mowing robot, cutting tool, in particular hedge trimming robot, irrigation tool, fertilizer tool. leaf suction robot, mulcher, water cleaning robot and/or pump, and wherein the monitoring device comprises a controller which is adapted to evaluate at least one activity zone state of the activity zone and at least one gardening tool state of the gardening tool for controlling the gardening tool , characterized in that the monitoring device with addition of the control is adapted to simultaneously monitor and control the activities of different types of gardening tools .
A process for preparing a VPO catalyst containing molybdenum and a vanadyl pyrophosphate phase comprising the steps of: a) Providing a reaction mixture comprising V 2 O 5 as a V(V) compound, phosphoric acid having a concentration between 98 and 100% as a P(V) compound, a Mo compound, an aromatic alcohol as a reducing agent, and an aliphatic alcohol as a solvent, and comprising between 50 and 80 wt.% solvent, between 5 and 15 wt.% reducing agent, between 5 and 15 wt.% V(V) compound, between 5 and 15 wt.% P(V) compound, and between 0.05 to 0.3 wt.% Mo compound, each based on the total weight of the mixture, b) Reducing the V(V) compound with the reducing agent at least in part to vanadyl hydrogen phosphate to obtain an intermediate product suspension, c) Filtering the intermediate product suspension from step b) to obtain an intermediate product, d) Drying the intermediate product at a maximum temperature of 350 °C to obtain a dried intermediate product and e) Activation of the dried intermediate product at a temperature above 200 °C, characterized in that a maximum of 0.2 wt. % of water, based on the weight of the reaction mixture, is present in step a) and no water is removed during the reduction in step b). a) Providing a reaction mixture comprising V 2 O 5 as a V(V) compound, phosphoric acid having a concentration between 98 and 100% as a P(V) compound, a Mo compound, an aromatic alcohol as a reducing agent, and an aliphatic alcohol as a solvent, and comprising between 50 and 80 wt.% solvent, between 5 and 15 wt.% reducing agent, between 5 and 15 wt.% V(V) compound, between 5 and 15 wt.% P(V) compound, and between 0.05 to 0.3 wt.% Mo compound, each based on the total weight of the mixture, b) Reducing the V(V) compound with the reducing agent at least in part to vanadyl hydrogen phosphate to obtain an intermediate product suspension, c) Filtering the intermediate product suspension from step b) to obtain an intermediate product, d) Drying the intermediate product at a maximum temperature of 350 °C to obtain a dried intermediate product and e) Activation of the dried intermediate product at a temperature above 200 °C,
A battery cushion , comprising: a body ; and collapsible pores , disposed in the body , wherein the collapsible pores comprise at least a first pore and a second pore , a collapsing pressure of the first pore is less than a collapsing pressure of the second pore , so that the battery cushion can release a compression space in a terraced manner under different extrusion forces; wherein the collapsible pores are uniformly distributed in the body , and a percentage of a volume of the collapsible pores in a volume of the body is 40% to 90%. a body ; and collapsible pores , disposed in the body , wherein the collapsible pores comprise at least a first pore and a second pore , a collapsing pressure of the first pore is less than a collapsing pressure of the second pore , so that the battery cushion can release a compression space in a terraced manner under different extrusion forces; wherein the collapsible pores are uniformly distributed in the body , and a percentage of a volume of the collapsible pores in a volume of the body is 40% to 90%.
Device for adjusting the position of components of an internal combustion engine, the device comprising: - an electric drive unit, - a drive shaft rotatable via the electric drive unit, - a lever connected to the drive shaft for rotation therewith and whose angle of rotation (a) is limited in a first direction of rotation at a first position by a first stop and whose angle of rotation (a) is limited in an opposite direction of rotation at a second position by a second stop , and - a spring connected with the lever in a manner eccentric to the drive shaft and via which the lever is loaded, depending on its position either in the direction of the first stop or the second stop , characterized by a cam rotating with the drive shaft and having a cam contour formed eccentrically relative to the drive shaft , which cooperates with a latching compression spring such that the drive shaft and the lever engage between the first position and the second position in a third position, wherein the third position is in a torque-neutral position of the spring . - an electric drive unit, - a drive shaft rotatable via the electric drive unit, - a lever connected to the drive shaft for rotation therewith and whose angle of rotation (a) is limited in a first direction of rotation at a first position by a first stop and whose angle of rotation (a) is limited in an opposite direction of rotation at a second position by a second stop , and - a spring connected with the lever in a manner eccentric to the drive shaft and via which the lever is loaded, depending on its position either in the direction of the first stop or the second stop ,
A washing machine comprising: a washing tub ; a spin-drying tub rotatably installed in the washing tub ; a pulsator rotatably installed in the spin-drying tub; a motor configured to rotate the spin-drying tub and the pulsator , the motor including: an annular stator , a first rotor rotatable independently from the annular stator , and a second rotor rotatable independently from the annular stator , wherein one of the first rotor and the second rotor is connected to the spin-drying tub, and the other of the first rotor and the second rotor is connected to the pulsator ; an inverter configured to drive the motor ; and characterized in that at least one processor is configured to control the inverter and drive the first rotor and the second rotor in a plurality of rotation modes by reversing magnetic poles of at least one of the first rotor and the second rotor . a washing tub ; a spin-drying tub rotatably installed in the washing tub ; a pulsator rotatably installed in the spin-drying tub; a motor configured to rotate the spin-drying tub and the pulsator , the motor including: an annular stator , a first rotor rotatable independently from the annular stator , and a second rotor rotatable independently from the annular stator , wherein one of the first rotor and the second rotor is connected to the spin-drying tub, and the other of the first rotor and the second rotor is connected to the pulsator ; an inverter configured to drive the motor ; and characterized in that at least one processor is configured to control the inverter and drive the first rotor and the second rotor in a plurality of rotation modes by reversing magnetic poles of at least one of the first rotor and the second rotor . an annular stator , a first rotor rotatable independently from the annular stator , and a second rotor rotatable independently from the annular stator , wherein one of the first rotor and the second rotor is connected to the spin-drying tub, and the other of the first rotor and the second rotor is connected to the pulsator ; an inverter configured to drive the motor ; and characterized in that at least one processor is configured to control the inverter and drive the first rotor and the second rotor in a plurality of rotation modes by reversing magnetic poles of at least one of the first rotor and the second rotor .
A method for encoding data by a transmitter in a broadcasting system, the method comprising: Low-Density Parity-Check, LDPC-encoding the data to generate a LDPC codeword by using a parity check matrix having a predetermined structure, which structure is equal to one defined in the DVB-S2 Standard and has a length of N 1 , an information part with an information length K 1 , and a parity part with a parity length of (N 1 -K 1 ), wherein parity bits of the LDPC codeword are divided into q parity bit sets based on a following equation: P j = p k | j ≡ k mod q , 0 ≤ k < N 1 − K 1 where P j represents a j th parity bit set, p k represents a k th parity bit, 0 ≤ j < q, q = N 1 − K 1 / M 1 , and M 1 = 360; the method further comprising: determining a number of parity bits N p to be punctured; determining a number m of parity bit sets, based on the number of parity bits to be punctured; and puncturing all parity bits of m parity bit sets P π , P π , ..., P π ( m -1) of q parity bit sets P j , where indexes π , ..., π(m-1) define a puncturing pattern, the puncturing pattern being determined based on a code rate K 1 / N 1 of a LDPC code associated with the parity check matrix, where the code rate K 1 / N 1 = 4/9, N 1 = 16200, K 1 = 7200, and q=25, and the puncturing pattern is defined by a following table, π π π π π π π π π 6 4 18 9 13 8 15 20 5 π π π π π π π π π 17 2 24 10 22 12 3 16 23 π π π π π π π - - 1 14 0 21 19 7 11 - - wherein parity bits of the LDPC codeword are divided into q parity bit sets based on a following equation: P j = p k | j ≡ k mod q , 0 ≤ k < N 1 − K 1 where P j represents a j th parity bit set, p k represents a k th parity bit, 0 ≤ j < q, q = N 1 − K 1 / M 1 , and M 1 = 360; P j represents a j th parity bit set, p k represents a k th parity bit, 0 ≤ j < q, q = N 1 − K 1 / M 1 , and M 1 = 360; the method further comprising: determining a number of parity bits N p to be punctured; determining a number m of parity bit sets, based on the number of parity bits to be punctured; and puncturing all parity bits of m parity bit sets P π , P π , ..., P π ( m -1) of q parity bit sets P j , where indexes π , ..., π(m-1) define a puncturing pattern, the puncturing pattern being determined based on a code rate K 1 / N 1 of a LDPC code associated with the parity check matrix, where the code rate K 1 / N 1 = 4/9, N 1 = 16200, K 1 = 7200, and q=25, and the puncturing pattern is defined by a following table, π π π π π π π π π 6 4 18 9 13 8 15 20 5 π π π π π π π π π 17 2 24 10 22 12 3 16 23 π π π π π π π - - 1 14 0 21 19 7 11 - -