mhurhangee/patent-ind-claim-en huggingface dataset:
A loudspeaker apparatus comprising: a surface arranged to be mechanically displaced; a first magnet coupled with the surface ; at least one supporting member for supporting the surface ; a base comprising a second magnet ; a coil ; and a signal port electrically coupled with the coil , wherein an electrical signal is configured to travel between the signal port and the coil , wherein a magnetic field between the first magnet and the second magnet causes a force to the surface , wherein an entity, comprising the surface and the at least one supporting member , comprises at least one elastic element providing a supporting counterforce acting as a counterforce to the force caused by the magnetic field, causing the surface to be in a force equilibrium state, and wherein the electrical signal in the coil is proportional to mechanic displacement of the surface when the force equilibrium state is broken either by the electrical signal in the coil or the mechanic displacement of the surface from a position of the force equilibrium state characterized in that the first magnet and the second magnet are arranged to directly face each other at a distance, in that the first magnet and second magnet are permanent magnets, and in that the coil is arranged around the first magnet or the second magnet . a surface arranged to be mechanically displaced; a first magnet coupled with the surface ; at least one supporting member for supporting the surface ; a base comprising a second magnet ; a coil ; and a signal port electrically coupled with the coil , wherein an electrical signal is configured to travel between the signal port and the coil , wherein a magnetic field between the first magnet and the second magnet causes a force to the surface , wherein an entity, comprising the surface and the at least one supporting member , comprises at least one elastic element providing a supporting counterforce acting as a counterforce to the force caused by the magnetic field, causing the surface to be in a force equilibrium state, and wherein the electrical signal in the coil is proportional to mechanic displacement of the surface when the force equilibrium state is broken either by the electrical signal in the coil or the mechanic displacement of the surface from a position of the force equilibrium state characterized in that the first magnet and the second magnet are arranged to directly face each other at a distance, in that the first magnet and second magnet are permanent magnets, and in that the coil is arranged around the first magnet or the second magnet .
A method for preparing a cannabinoid concentrate comprising more than 50% by dry weight, with respect to the total dry weight of the concentrate, of cannabinoids and wherein the weight ratio (THCA):(other cannabinoid acids) is of less than 1:50, comprising the steps of: a) providing a lipid extract comprising at least 1% by dry weight, with respect to the total cannabinoids dry weight, of cannabinoid acids and wherein the weight ratio (THCA):(other cannabinoid acids) is of less than 1:2; b) mixing said lipid extract with an alkaline aqueous solution to form a mixture having a pH of at least 12; c) separating from the mixture of step b) an aqueous phase containing cannabinoid salts; and d) obtaining said cannabinoid concentrate, wherein before step c) at least one salt and/or at least one sugar is added to the mixture of step b), and said step c) of separating comprises separating from the mixture of step b): - a lighter oily phase, - an intermediate slimy phase, and - a heavier aqueous phase, wherein the heavier aqueous phase is the aqueous phase containing cannabinoid acid salts. a) providing a lipid extract comprising at least 1% by dry weight, with respect to the total cannabinoids dry weight, of cannabinoid acids and wherein the weight ratio (THCA):(other cannabinoid acids) is of less than 1:2; b) mixing said lipid extract with an alkaline aqueous solution to form a mixture having a pH of at least 12; c) separating from the mixture of step b) an aqueous phase containing cannabinoid salts; and d) obtaining said cannabinoid concentrate, - a lighter oily phase, - an intermediate slimy phase, and - a heavier aqueous phase, wherein the heavier aqueous phase is the aqueous phase containing cannabinoid acid salts.
A chimeric antigen receptor (CAR) which comprises an antigen binding domain which selectively binds to Receptor Tyrosine Kinase Like Orphan Receptor 1 (ROR1), wherein the antigen binding domain comprises a light chain variable domain and a heavy chain variable domain, wherein the light chain variable domain comprises a light chain complementarity determining region (LCDR)1, an LCDR2 and an LCDR3, wherein LCDR1 comprises the amino acid sequence set forth in SEQ ID NO: 16; LCDR2 comprises the amino acid sequence set forth in SEQ ID NO: 18; and LCDR3 comprises the amino acid sequence set forth in SEQ ID NO: 20; and wherein the heavy chain variable domain comprises a heavy chain complementarity determining region (HCDR)1, an HCDR2 and an HCDR3, wherein HCDR1 comprises the amino acid sequence set forth in SEQ ID NO: 23; HCDR2 comprises the amino acid sequence set forth in SEQ ID NO: 25; and HCDR3 comprises the amino acid sequence set forth in SEQ ID NO: 57.
A method,comprising: encoding a data packet to be transmitted from a source station to a destination station over a resource unit, hereinafter RU, in a wireless local area network; modulating encoded bits to a first set of modulated symbols using a first modulation scheme, and modulating the same encoded bits to a second set of modulated symbols using a second modulation scheme if dual carrier modulation, hereinafter DCM, is applied; mapping the first set of modulated symbols onto a first half of frequency subcarriers of the RU by a tone mapper , and mapping the second set of modulated symbols onto a second half of frequency subcarriers of the RU by the same tone mapper ; and transmitting the data packet to the destination station, characterized in that the tone mapper is used for low density parity check, hereinafter LDPC, channel control coding; and using LDPC encoding for encoding the data packet. encoding a data packet to be transmitted from a source station to a destination station over a resource unit, hereinafter RU, in a wireless local area network; modulating encoded bits to a first set of modulated symbols using a first modulation scheme, and modulating the same encoded bits to a second set of modulated symbols using a second modulation scheme if dual carrier modulation, hereinafter DCM, is applied; mapping the first set of modulated symbols onto a first half of frequency subcarriers of the RU by a tone mapper , and mapping the second set of modulated symbols onto a second half of frequency subcarriers of the RU by the same tone mapper ; and transmitting the data packet to the destination station, characterized in that the tone mapper is used for low density parity check, hereinafter LDPC, channel control coding; and using LDPC encoding for encoding the data packet.
A method of ordering, paying for, and delivering goods and services using a mobile station, comprising: accessing through a telecommunications infrastructure a gateway by the mobile station and transmitting an identification code for the mobile station to the gateway; verifying the identity of the mobile station by the gateway by accessing an authentication center and comparing variables computed by the mobile station and variables computed by the gateway; verifying the legitimacy of the gateway by the mobile station by comparing variables computed by the gateway with variables computed by the mobile station; requesting a digital certificate by the mobile station through the telecommunications infrastructure from the gateway to be used to order and pay for a product or service from a seller; receiving a digital certificate at the mobile station from the gateway when the identity of the mobile station has been verified by the gateway; requesting by the mobile station a product or service from the seller; and transmitting through a different communications infrastructure a digital signature by the mobile station accompanied by the digital certificate for a signature verification key as payment to said seller. accessing through a telecommunications infrastructure a gateway by the mobile station and transmitting an identification code for the mobile station to the gateway; verifying the identity of the mobile station by the gateway by accessing an authentication center and comparing variables computed by the mobile station and variables computed by the gateway; verifying the legitimacy of the gateway by the mobile station by comparing variables computed by the gateway with variables computed by the mobile station; requesting a digital certificate by the mobile station through the telecommunications infrastructure from the gateway to be used to order and pay for a product or service from a seller; receiving a digital certificate at the mobile station from the gateway when the identity of the mobile station has been verified by the gateway; requesting by the mobile station a product or service from the seller; and transmitting through a different communications infrastructure a digital signature by the mobile station accompanied by the digital certificate for a signature verification key as payment to said seller.
A method for controlling interference by a Base Station, BS, in a wireless communication system, the method comprising: receiving (S810) an interfering cell signal transmitted by an interfering cell located adjacent to the BS; blind detecting (S830) the received interfering cell signal; acquiring (S840) control information from the received interfering cell signal based on a User Equipment, UE, identifier acquired as a result of the blind detection, when the blind detection is successful; acquiring (S850) interference information based on the acquired control information; and transmitting (S870) the acquired interference information to a UE served by the BS. receiving (S810) an interfering cell signal transmitted by an interfering cell located adjacent to the BS; blind detecting (S830) the received interfering cell signal; acquiring (S840) control information from the received interfering cell signal based on a User Equipment, UE, identifier acquired as a result of the blind detection, when the blind detection is successful; acquiring (S850) interference information based on the acquired control information; and transmitting (S870) the acquired interference information to a UE served by the BS.
A method for producing a microelectromechanical systems (MEMS) device comprising: providing a substrate ; forming a first dielectric layer overlying said substrate ; forming a first structural layer overlying said first dielectric layer , wherein said forming said first structural layer comprises producing a sense plate in said first structural layer ; forming a second dielectric layer over said first structural layer to produce a base structure in which a portion of said first dielectric layer is exposed from both of said first structural layer and said second dielectric layer ; forming a sacrificial layer overlying said portion of said first dielectric layer and said second dielectric layer of said base structure ; forming a second structural layer overlying said sacrificial layer , wherein said forming said second structural layer comprises forming a conductive proof mass in said second structural layer; and selectively removing said sacrificial layer and said portion of said first dielectric layer to expose a top surface of said substrate underlying said portion of said first dielectric layer and to release said proof mass such that said proof mass is spaced apart from said base structure and is movable relative to said base structure for capacitive sensing of movement of the proof mass by said sense plate , said selectively removing operation producing a first gap between said proof mass and said top surface of said substrate and a second gap between said proof mass and said sense plate , a first width of said first gap being greater than a second width of said second gap . providing a substrate ; forming a first dielectric layer overlying said substrate ; forming a first structural layer overlying said first dielectric layer , wherein said forming said first structural layer comprises producing a sense plate in said first structural layer ; forming a second dielectric layer over said first structural layer to produce a base structure in which a portion of said first dielectric layer is exposed from both of said first structural layer and said second dielectric layer ; forming a sacrificial layer overlying said portion of said first dielectric layer and said second dielectric layer of said base structure ; forming a second structural layer overlying said sacrificial layer , wherein said forming said second structural layer comprises forming a conductive proof mass in said second structural layer; and selectively removing said sacrificial layer and said portion of said first dielectric layer to expose a top surface of said substrate underlying said portion of said first dielectric layer and to release said proof mass such that said proof mass is spaced apart from said base structure and is movable relative to said base structure for capacitive sensing of movement of the proof mass by said sense plate , said selectively removing operation producing a first gap between said proof mass and said top surface of said substrate and a second gap between said proof mass and said sense plate , a first width of said first gap being greater than a second width of said second gap .
Pile cutting device comprising a first pile positioning unit , the pile cutting device comprising at least one first cutting unit for cutting at least one sheet pile , and the pile cutting device comprising at least one bearing device including a first pile bearing surface , and the first pile positioning unit comprising an upper rotary plunger that can be pivoted about a pivot axis and moved with respect to a vertical direction (V), and the first pile positioning unit comprising at least one first horizontal drive for moving at least one sheet pile in and/or counter to a first horizontal direction (F), characterized in that the first pile positioning unit comprises at least two upper pressing elements (31; 32) that differ from the upper rotary plunger , which are movable with respect to the vertical direction (V), and in that a first upper pressing element is arranged so as to be movable in and/or counter to the first horizontal direction (F) by means of the first horizontal drive , and in that a second upper pressing element is arranged so as to be movable in and/or counter to the first horizontal direction (F) by means of a second horizontal drive .
An information transmission method, comprising: sending , by a network device , control information to a terminal device , wherein the control information is carried on a control channel, a position of the only one orthogonal frequency division multiplexing, OFDM, symbol, to which the control channel is mapped, in a time unit is one of the positions in a position set, and the time unit is a subframe or a slot of a Long-Term Evolution, LTE, system; wherein the control information is used to schedule at least one resource unit, and the resource unit comprises at least one OFDM symbol, wherein the position set comprises at least one of the following elements: OFDM symbol #5 in the subframe, and OFDM symbol #6 in the subframe, and the one of the positions is OFDM symbol #5 or OFDM symbol #6; or wherein the position set comprises at least one of the following elements: OFDM symbol #5 in the slot, and OFDM symbol #6 in the slot, and the one of the positions is OFDM symbol #5 or OFDM symbol #6. sending , by a network device , control information to a terminal device , wherein the control information is carried on a control channel, a position of the only one orthogonal frequency division multiplexing, OFDM, symbol, to which the control channel is mapped, in a time unit is one of the positions in a position set, and the time unit is a subframe or a slot of a Long-Term Evolution, LTE, system; wherein the control information is used to schedule at least one resource unit, and the resource unit comprises at least one OFDM symbol, wherein the position set comprises at least one of the following elements: OFDM symbol #5 in the subframe, and OFDM symbol #6 in the subframe, and the one of the positions is OFDM symbol #5 or OFDM symbol #6; or wherein the position set comprises at least one of the following elements: OFDM symbol #5 in the slot, and OFDM symbol #6 in the slot, and the one of the positions is OFDM symbol #5 or OFDM symbol #6.
A method for determining an actual volume V r of an injection-moldable compound during an injection molding process, wherein the injection-moldable compound is introduced into at least one cavity of a mold, having the steps: a) determining a theoretical volume V t from process variables at least during a filling phase of the injection molding process, b) determining and/or measuring at least one value for at least one compound pressure p M , characterized by the steps c) selecting a material-specific compression k(p), corresponding to the value of p M of the injection-moldable compound, and d) calculating an actual volume V r by taking into account the compression k(p). a) determining a theoretical volume V t from process variables at least during a filling phase of the injection molding process, b) determining and/or measuring at least one value for at least one compound pressure p M , characterized by the steps c) selecting a material-specific compression k(p), corresponding to the value of p M of the injection-moldable compound, and d) calculating an actual volume V r by taking into account the compression k(p).
Pneumatic vehicle tyre with a tread strip of directional configuration which is divided into tread bars by oblique channels which runs towards one another in a V-shape, in each case two further channels which run between adjacent oblique channels in the circumferential direction, and at least one central circumferential channel which runs in the region of the tyre equator plane (A-A), oblique channels which open into the or a central circumferential channel and oblique channels which end before the or a central circumferential channel running in each tread strip half, in each case one oblique channel which ends before the or a central circumferential channel alternating in the circumferential direction with an oblique channel which opens into the or a central circumferential channel , and tread bars being formed on the respective central circumferential channel , into which tread bars the oblique channels which end before the said central circumferential channel run, characterized in that the further channels are inclined with respect to the oblique channels in opposite directions with regard to the circumferential direction, the central circumferential channel/channels running in a zigzag-shaped manner in plan view and being composed of straight channel sections which in each case adjoin one another at a channel bend, the oblique channels which run in the one tread strip half being offset in the circumferential direction with respect to the oblique channels which run in the other tread strip half, and the oblique channels which open into the circumferential channel or one of the central circumferential channels opening in each case at an outer bend point of the central circumferential channel .
An insert adapted to be mounted in a neck of a journal leg of a rotary drill tool for cutting rock to provide increased wear protection; wherein the insert has a mushroom shape comprising a hat and a foot , the hat having a diameter (D1) and the foot having a diameter (D2) being smaller than the diameter (D1) of the hat ; wherein the hat has a chamfered lower side and a height (H) of the hat is defined as from a point of a horizontal plane that is arranged in an intersection of the chamfered lower side and an outer edge of the hat to a horizontal plane representing a top surface of the hat; characterized in that: the relation of the height (H) of the hat versus the diameter (D 1) of the hat is in the range of 10% to 25%. wherein the insert has a mushroom shape comprising a hat and a foot , the hat having a diameter (D1) and the foot having a diameter (D2) being smaller than the diameter (D1) of the hat ; wherein the hat has a chamfered lower side and a height (H) of the hat is defined as from a point of a horizontal plane that is arranged in an intersection of the chamfered lower side and an outer edge of the hat to a horizontal plane representing a top surface of the hat; characterized in that: the relation of the height (H) of the hat versus the diameter (D 1) of the hat is in the range of 10% to 25%.
Nozzle (1.1, 1.2, 1.3) for cleaning a filter element by means of a fluid flow, comprising: at least one first nozzle section (2.1) formed as a hollow truncated cone; at least one first passage, wherein the first passage forms a first nozzle opening (5.1 ) in a top surface (3.1) of the first nozzle section (2.1); and a plurality of second passages surrounding the first passage, wherein the second passages form second nozzle openings (5.2) in the lateral surface (3.3) of the first nozzle section (2.1), wherein the second passages respectively comprise a passage axis inclined with respect to a parallel axis which extends parallel to a center axis of the nozzle (1.1, 1.2, 1.3), for imparting a helix-like flow contour to the fluid flow. at least one first nozzle section (2.1) formed as a hollow truncated cone; at least one first passage, wherein the first passage forms a first nozzle opening (5.1 ) in a top surface (3.1) of the first nozzle section (2.1); and a plurality of second passages surrounding the first passage, wherein the second passages form second nozzle openings (5.2) in the lateral surface (3.3) of the first nozzle section (2.1), wherein the second passages respectively comprise a passage axis inclined with respect to a parallel axis which extends parallel to a center axis of the nozzle (1.1, 1.2, 1.3), for imparting a helix-like flow contour to the fluid flow.