mhurhangee/patent-ind-claim-en huggingface dataset:
A kit comprising: a restoration material, and a non-thermal plasma deposition device for repairing a damaged bone or tooth, comprising: an ionization chamber configured to: receive a carrier gas; and excite the carrier gas to form an ionizing plasma stream; the ionization chamber further comprising an inlet coupled to a restoration material supply: the inlet intersecting with the ionization chamber in a location after the ionizing plasma stream is formed; the ionization chamber further configured to receive the restoration material and introduce the restoration material into the ionizing plasma stream to form a deposition stream; and a deposition nozzle that is configured to: eject a plume of the deposition stream to deposit the restoration material on an application site; wherein the restoration material is hydroxyapatite, carbonated calcium-deficient hydroxyapatite with acid phosphate substitutions, calcium apatite, nano-scale diamond, flourapatite, chlorapatite, or combinations thereof. a restoration material, and a non-thermal plasma deposition device for repairing a damaged bone or tooth, comprising: an ionization chamber configured to: receive a carrier gas; and excite the carrier gas to form an ionizing plasma stream; the ionization chamber further comprising an inlet coupled to a restoration material supply: the inlet intersecting with the ionization chamber in a location after the ionizing plasma stream is formed; the ionization chamber further configured to receive the restoration material and introduce the restoration material into the ionizing plasma stream to form a deposition stream; and a deposition nozzle that is configured to: eject a plume of the deposition stream to deposit the restoration material on an application site; an ionization chamber configured to: receive a carrier gas; and excite the carrier gas to form an ionizing plasma stream; receive a carrier gas; and excite the carrier gas to form an ionizing plasma stream; the ionization chamber further comprising an inlet coupled to a restoration material supply: the inlet intersecting with the ionization chamber in a location after the ionizing plasma stream is formed; the ionization chamber further configured to receive the restoration material and introduce the restoration material into the ionizing plasma stream to form a deposition stream; and a deposition nozzle that is configured to: eject a plume of the deposition stream to deposit the restoration material on an application site; the inlet intersecting with the ionization chamber in a location after the ionizing plasma stream is formed; the ionization chamber further configured to receive the restoration material and introduce the restoration material into the ionizing plasma stream to form a deposition stream; and a deposition nozzle that is configured to: eject a plume of the deposition stream to deposit the restoration material on an application site; wherein the restoration material is hydroxyapatite, carbonated calcium-deficient hydroxyapatite with acid phosphate substitutions, calcium apatite, nano-scale diamond, flourapatite, chlorapatite, or combinations thereof.
Method for installing an elevator system , comprising the steps of: - using an at least partially mounted traveling body as a movable working platform, wherein the at least partially mounted traveling body is supported by a traction means , and the at least partially mounted traveling body already has at least one electronic safety brake , - creating an operating state of the electronic safety brake by using a control unit which is designed to control an electronic safety brake of an elevator system , comprising a safety sensor , a processing unit , and a signal output , • connecting the signal output to the electronic safety brake , • generating a control signal by means of the processing unit at the signal output , wherein the control signal is able to control the electronic safety brake , • detecting an unsafe operating state by means of the safety sensor , • controlling the signal output , on the basis of detection of an unsafe operating state, by means of the processing unit so that the electronic safety brake can be triggered, characterized in that the method comprises the additional step of: - removing the control unit when the installation of the elevator system is complete. - using an at least partially mounted traveling body as a movable working platform, wherein the at least partially mounted traveling body is supported by a traction means , and the at least partially mounted traveling body already has at least one electronic safety brake , - creating an operating state of the electronic safety brake by using a control unit which is designed to control an electronic safety brake of an elevator system , comprising a safety sensor , a processing unit , and a signal output , • connecting the signal output to the electronic safety brake , • generating a control signal by means of the processing unit at the signal output , wherein the control signal is able to control the electronic safety brake , • detecting an unsafe operating state by means of the safety sensor , • controlling the signal output , on the basis of detection of an unsafe operating state, by means of the processing unit so that the electronic safety brake can be triggered, • connecting the signal output to the electronic safety brake , • generating a control signal by means of the processing unit at the signal output , wherein the control signal is able to control the electronic safety brake , • detecting an unsafe operating state by means of the safety sensor , • controlling the signal output , on the basis of detection of an unsafe operating state, by means of the processing unit so that the electronic safety brake can be triggered, - removing the control unit when the installation of the elevator system is complete.
A device for the, in particular temporary, bonding of a first substrate with a second substrate with the following features: - a mounting apparatus for mounting of the first substrate on a mounting contour (8, 8', 8", 8"', 8 IV ) with an active mounting surface (7, 7', 7", 7"', 7 IV ) of the mounting apparatus with an outer ring section for the controllable fixing of the first substrate and an inner ring section set back at least largely with respect to the mounting surface (7, 7', 7", 7''', 7 IV ), - deformation means for the controllable deformation of the first substrate , wherein the first substrate can be acted upon by the deformation with prestressing, wherein the deformation means are made to act within the outer ring section, - bonding means for bonding of the first substrate with the second substrate by detaching the deformed first substrate from the mounting apparatus, wherein the bonding means are constituted such that the first substrate can be released and can be bonded with the second substrate independently on the basis of its prestressing, wherein the mounting contour (8, 8', 8", 8"', 8 IV ) comprises in the inner ring section at least one support surface (12, 12', 12") for supporting the semiconductor substrate , characterised in that the support surface (12, 12', 12") is included in the mounting surface (7, 7', 7", 7"', 7 IV ), wherein the detaching of the first substrate from the mounting apparatus is brought about from inside outwards by a targeted reduction of the negative pressure on the mounting surface (7, 7', 7", 7"', 7 IV ). - a mounting apparatus for mounting of the first substrate on a mounting contour (8, 8', 8", 8"', 8 IV ) with an active mounting surface (7, 7', 7", 7"', 7 IV ) of the mounting apparatus with an outer ring section for the controllable fixing of the first substrate and an inner ring section set back at least largely with respect to the mounting surface (7, 7', 7", 7''', 7 IV ), - deformation means for the controllable deformation of the first substrate , wherein the first substrate can be acted upon by the deformation with prestressing, wherein the deformation means are made to act within the outer ring section, - bonding means for bonding of the first substrate with the second substrate by detaching the deformed first substrate from the mounting apparatus, wherein the bonding means are constituted such that the first substrate can be released and can be bonded with the second substrate independently on the basis of its prestressing, wherein the mounting contour (8, 8', 8", 8"', 8 IV ) comprises in the inner ring section at least one support surface (12, 12', 12") for supporting the semiconductor substrate , characterised in that the support surface (12, 12', 12") is included in the mounting surface (7, 7', 7", 7"', 7 IV ), wherein the detaching of the first substrate from the mounting apparatus is brought about from inside outwards by a targeted reduction of the negative pressure on the mounting surface (7, 7', 7", 7"', 7 IV ).
Wind energy installation comprising a wind rotor , a generator with a converter for generating electrical power, which generator is driven by the wind rotor , and an installation transformer which is connected via a connecting line and has at least one phase winding section for delivering the power to a network , wherein the installation transformer has a winding pair consisting of a low-voltage winding and a high-voltage winding for each phase winding section, which winding pairs form a first impedance of the installation transformer , characterized in that at least one second winding pair having a second low-voltage winding and a second high-voltage winding is provided for each phase winding section and is arranged at a distance from the first winding pair , and wherein each of the winding pairs is arranged in the stray field of the respective other winding pair , wherein magnetic cross-coupling is formed between the windings of one winding pair and the windings of the other winding pair, and wherein the first and second winding pairs form winding sections for the power which are electrically connected in parallel.
A computer-implemented method , the method comprising: receiving , at a receiver node in a blockchain transaction acceleration system, a first transaction sent through a first node in a blockchain ; receiving , at the receiver node in the blockchain transaction acceleration system, a plurality of second transactions, each second transaction being a duplicate of the first transaction, each respective second transaction of the plurality of second transactions sent by the first node to a respective second node of a plurality of second nodes in the blockchain, wherein each respective second node of the plurality of second nodes is different from the first node, each respective second transaction of the plurality of second transactions being forwarded by the respective second node to the receiver node ; executing , by the blockchain transaction acceleration system, a first-received transaction among received transactions that include the first transaction and the plurality of second transactions; and upon determining, by the blockchain transaction acceleration system, that remaining transactions of the received transactions are identical to the first-received transaction, discarding the remaining transactions. receiving , at a receiver node in a blockchain transaction acceleration system, a first transaction sent through a first node in a blockchain ; receiving , at the receiver node in the blockchain transaction acceleration system, a plurality of second transactions, each second transaction being a duplicate of the first transaction, each respective second transaction of the plurality of second transactions sent by the first node to a respective second node of a plurality of second nodes in the blockchain, wherein each respective second node of the plurality of second nodes is different from the first node, each respective second transaction of the plurality of second transactions being forwarded by the respective second node to the receiver node ; executing , by the blockchain transaction acceleration system, a first-received transaction among received transactions that include the first transaction and the plurality of second transactions; and upon determining, by the blockchain transaction acceleration system, that remaining transactions of the received transactions are identical to the first-received transaction, discarding the remaining transactions.
An anti-proliferative compound or a pharmaceutical composition comprising said anti-proliferative compound for use in the prevention or treatment of cancer, tumor metastasis or tumor recurrence in a subject, wherein said subject has been preselected for treatment by a screening method comprising the detection of the presence or absence of target cells in a biological sample obtained from the subject, wherein the presence of said target cells is an indicator for the susceptibility of said subject for a positive treatment outcome with said anti-proliferative compound, characterized in that said preselection comprises the step of detecting the expression by said target cells of the biomarker TPM4 (tropomyosin 4) or a splice variant thereof, wherein said antiproliferative compound is selected from the group consisting of bithionate Na, broxyquinoline, clioquinol, clofoctol, ebselen, lasalocid Na, ramelteon, triclosan, butoconazole, econazole nitrate, miconazole nitrate, oxiconazole nitrate, sulconazole nitrate, tioconazole and broxaldine; and wherein the absence and/or non-expression of said biomarker is an indicator for the susceptibility of said subject for a positive treatment outcome with said anti-proliferative compound. wherein said antiproliferative compound is selected from the group consisting of bithionate Na, broxyquinoline, clioquinol, clofoctol, ebselen, lasalocid Na, ramelteon, triclosan, butoconazole, econazole nitrate, miconazole nitrate, oxiconazole nitrate, sulconazole nitrate, tioconazole and broxaldine; and wherein the absence and/or non-expression of said biomarker is an indicator for the susceptibility of said subject for a positive treatment outcome with said anti-proliferative compound.
Machine for dispensing beverages comprising a chassis , a pod which comprises at least two cavities each containing a volume (VI1, VI2) of ingredients entering into the composition of the beverage, said machine comprising a container for receiving said pod and said machine further comprising a device for injecting air configured to deliver, in a synchronised manner, at least two air volumes (Va1, Va2) respectively adapted to the volumes (VI1, VI2) of the ingredients, in the cavities characterised in that the injection device comprises an air pump comprising two chambers and two pistons mounted sliding respectively in the two chambers, and means for actuating the two pistons, in a synchronised manner.
A shoe configured to form part of a protective suit , the shoe comprising conductive sole which comprises: a first fabric having an inner perimeter and an outer perimeter , the inner perimeter defining a hole in the fabric ; and a first conductive thermoplastic material joined with the inner perimeter of the first fabric , wherein the inner perimeter of the first fabric surrounds the first conductive material to form the conductive sole and an overlap of the first fabric and the first conductive material define a first attachment area , a second attachment area , and a middle sealed area disposed between the first sole attachment area and the second sole attachment area , the first fabric and first conductive thermoplastic material joined at the first and second attachment areas and not at the middle sealed area , forming a double bar seal . a first fabric having an inner perimeter and an outer perimeter , the inner perimeter defining a hole in the fabric ; and a first conductive thermoplastic material joined with the inner perimeter of the first fabric , wherein the inner perimeter of the first fabric surrounds the first conductive material to form the conductive sole and an overlap of the first fabric and the first conductive material define a first attachment area , a second attachment area , and a middle sealed area disposed between the first sole attachment area and the second sole attachment area , the first fabric and first conductive thermoplastic material joined at the first and second attachment areas and not at the middle sealed area , forming a double bar seal .
An agricultural vehicle with a driver's cabin , which has a cabin roof , wherein the cabin roof has at least one through roof opening , wherein the cabin roof is constructed and configured in a manner such that an interchangeable insert which cooperates with the cabin roof is releasably disposed in the roof opening , wherein the interchangeable insert is configured in the form of an opaque cover module or a substantially transparent cover module , wherein the interchangeable insert configured as a transparent cover module and the interchangeable insert configured as an opaque cover module are interchangeably disposed on the cabin roof and at least one fastening means is provided on the inside and/or outside of the cabin roof for releasably fastening the interchangeable insert , wherein the opaque cover module is configured in a manner such that in the closed position, the fastening means and/or retainers of the fastening means are covered by the opaque cover module , characterized in that in a closed position, the interchangeable insert is configured such that the inside and the outside thereof is flush with and follows the contours of the cabin roof .
A method for producing endless abrasive articles , the method comprising: - providing a mandrel coil , which comprises a first complete turn (B0 A ) formed of an endless mandrel belt (B0), - feeding the endless mandrel belt (B0) to an input end (IN0) of the mandrel coil and unwinding the endless mandrel belt (B0) from an output end (OUT0) of the mandrel coil so as to move the surface of the first complete turn (B0 A ) of the mandrel coil , - forming a laminated sleeve (SLEEVE1) from one or more strips (S1, S2) such that an innermost or an outermost strip of the laminated sleeve (SLEEVE1) comprises abrasive grains (G1), wherein a first layer of the laminated sleeve (SLEEVE1) is formed by feeding a first strip (S1) on the moving surface of the first complete turn (B0 A ) of the mandrel coil , and - forming an endless abrasive article by cutting the laminated sleeve (SLEEVE1). - providing a mandrel coil , which comprises a first complete turn (B0 A ) formed of an endless mandrel belt (B0), - feeding the endless mandrel belt (B0) to an input end (IN0) of the mandrel coil and unwinding the endless mandrel belt (B0) from an output end (OUT0) of the mandrel coil so as to move the surface of the first complete turn (B0 A ) of the mandrel coil , - forming a laminated sleeve (SLEEVE1) from one or more strips (S1, S2) such that an innermost or an outermost strip of the laminated sleeve (SLEEVE1) comprises abrasive grains (G1), wherein a first layer of the laminated sleeve (SLEEVE1) is formed by feeding a first strip (S1) on the moving surface of the first complete turn (B0 A ) of the mandrel coil , and - forming an endless abrasive article by cutting the laminated sleeve (SLEEVE1).
Use of an antibacterial agent for disinfection of foods against bacteria belonging to the genus Listeria, wherein the antibacterial agent comprises as an active ingredient a compound represented by the following formula , extracted from rosemary
A control device for an electric motor having a first set of coil windings arranged to form a first sub motor and a second set of coil windings arranged to form a second sub motor, wherein current flow in the first set of coil windings is controlled using a first pulse width modulation, PWM, having a first switching sequence and current flow in the second set of coil windings is controlled using a second PWM having a second switching sequence, the control device comprising means arranged to measure the current flow in each of the first set of coil windings, characterised by upon determining that the sum of the current flow in the first set of coil windings is substantially non zero, deriving the first PWM values from voltage values used to generate the second PWM.
A communication control apparatus , comprising: a control section configured to select at least one cell from among a plurality of cells based on information on a Doppler shift estimated based on an uplink reference signal, which the at least one cell received from a terminal , in each of the plurality of cells ; and a transmission section configured to transmit a downlink transmission signal to the at least one cell selected, the downlink transmission signal being for controlling radio connection with the terminal . a control section configured to select at least one cell from among a plurality of cells based on information on a Doppler shift estimated based on an uplink reference signal, which the at least one cell received from a terminal , in each of the plurality of cells ; and a transmission section configured to transmit a downlink transmission signal to the at least one cell selected, the downlink transmission signal being for controlling radio connection with the terminal .
A method for providing electrical propulsion assistance in a vehicle having pedals arranged on a crank axis , an electric motor , an actuator , and a control unit that is configured to provide control signals to said electric motor and said actuator based on a crank axle input ; said pedals , said electric motor , and said actuator being configured to propel said vehicle via a drive train; the method comprising: - detecting as a take-off attempt, the simultaneous occurrence of at least the following conditions: o said vehicle is at a stand-still; and o a torque is being applied to said pedals in a sense of forward motion of said vehicle; - permitting during said take-off attempt a forward rotation of said pedals ; and - providing a propulsion supporting torque after said detection of said take-off attempt ; characterized in that appropriate first control signals are provided to said electric motor and said actuator to apply a predetermined countertorque to said pedals during said forward rotation; and in that appropriate second control signals are provided to said electric motor and said actuator to provide said propulsion supporting torque when a predetermined take-off criterion is met . - detecting as a take-off attempt, the simultaneous occurrence of at least the following conditions: o said vehicle is at a stand-still; and o a torque is being applied to said pedals in a sense of forward motion of said vehicle; o said vehicle is at a stand-still; and o a torque is being applied to said pedals in a sense of forward motion of said vehicle; - permitting during said take-off attempt a forward rotation of said pedals ; and - providing a propulsion supporting torque after said detection of said take-off attempt ; characterized in that appropriate first control signals are provided to said electric motor and said actuator to apply a predetermined countertorque to said pedals during said forward rotation; and in that appropriate second control signals are provided to said electric motor and said actuator to provide said propulsion supporting torque when a predetermined take-off criterion is met .
An amorphous oxide-based positive electrode active material being a production material of a positive electrode for an all-solid secondary battery, comprising an alkali metal selected from Li and Na; a second metal selected from Co, Ni, Mn, Fe, Cr, V, Cu, Ti, Zn, Zr, Nb, Mo, Ru and Sn; an ionic species selected from phosphate ion, sulfate ion, borate ion, silicate ion, aluminate ion, germanate ion, nitrate ion, carbonate ion and halide ion; and an oxygen atom except for the oxygen atom constituting the ionic species, wherein said amorphous oxide-based positive electrode active material exhibits an amorphous state such that a peak at minimum 2θ in an XRD pattern has a half-value of 0.5 or more when measured with an X-ray source that is CuKα.