mhurhangee/patent-ind-claim-en huggingface dataset:
A dosage form comprising a pharmaceutically active compound and 2R-dodecyl 2-(N,N-dimethylamino)-propionate or a salt thereof, wherein the 2R-dodecyl 2-(N,N-dimethylamino)-propionate has an enantiomeric purity of at least about 70 %, wherein the dosage form is a solution, wherein the pharmaceutically active compound comprises lansoprazole.
Blocking device for locking an essential functional component of a motor vehicle, in particular a steering shaft, with a first housing part in which a blocking bolt is movably received between a locking position (VP) for locking the functionally essential component and an unlocking position (EP) for releasing the functionally essential component, a second housing part in which means for moving the blocking bolt between the locking position (VP) and the unlocking position (EP) are accommodated, a securing element which in an engagement position (ES) prevents movement of the blocking bolt and in a retracted position (RS) releases movement of the blocking bolt , and a spring element which supports the securing element in the retracted position (RS) by means of a spring-elastic pretension (V) when the first housing part is arranged on the second housing part , and releases it into the engagement position (ES) by means of a springback (R) when the first housing part is changed in its arrangement relative to the second housing part , characterized in that the spring element is supported on the blocking bolt and acts on the blocking bolt from the unlocked position (EP) into the locking position (VP) by means of a spring-elastic prestress (V).
A computer-implemented method for locating desired data in a database (300-1) stored in a data node using a nearly-ordered map table , said method comprising: dividing data in the database (300-1) into a plurality of extents (300-2); annotating each extent (300-2) with a range of data values according to statistics about the data contained in the extent (300-2), wherein the range of data values for each extent comprises one or more ranges of data based on one or more attributes, each of the one or more ranges of data has an associated annotation of a maximum and a minimum value of one attribute of the data within the respective extent, wherein the ranges of data values associated with the extent (300-2) are stored in the nearly ordered map table being stored in a memory of the data node; selecting one or more extents for which the associated ranges of data overlap at least partially with a data range of the desired data, based on the minimum and maximum values of the ranges of data stored in the nearly ordered map table, by consulting the nearly ordered map table being stored in the memory of the data node to determine a subset of extents that could hold the desired data; and searching the selected one or more extents to locate the desired data. dividing data in the database (300-1) into a plurality of extents (300-2); annotating each extent (300-2) with a range of data values according to statistics about the data contained in the extent (300-2), wherein the range of data values for each extent comprises one or more ranges of data based on one or more attributes, each of the one or more ranges of data has an associated annotation of a maximum and a minimum value of one attribute of the data within the respective extent, wherein the ranges of data values associated with the extent (300-2) are stored in the nearly ordered map table being stored in a memory of the data node; selecting one or more extents for which the associated ranges of data overlap at least partially with a data range of the desired data, based on the minimum and maximum values of the ranges of data stored in the nearly ordered map table, by consulting the nearly ordered map table being stored in the memory of the data node to determine a subset of extents that could hold the desired data; and searching the selected one or more extents to locate the desired data.
A sensor unit having a housing , having a sensor system and having metal elements , wherein the metal elements comprise a jacket element and side elements , wherein the housing consists completely of a plastic that is covered by the metal elements , wherein the sensor unit comprises a light permeable housing as the housing and at least one light source, wherein the at least one light source is arranged in the light permeable housing for the optical display of a status of the sensor system located in the housing , and wherein a raised bead of the housing consisting of plastic that serves as a light uncoupling surface is formed between the jacket element and the side elements .
Hob apparatus having at least one heating region (12a-c) on which at least one cooking container (14a-c) can be placed for heating purposes, and comprising a dynamic display unit (16a-c) which is provided for identifying the heating region (12a-c) in at least one operating mode, which is independent of placing and removing the cooking container (14a-c) in and out of the heating region (12a-c) and having a control unit (18a-c), which is provided , in the case of a placed cooking container (14a-c), to form at least one heating zone for heating the placed cooking container (14a-c) from at least one heating unit (24a-c) at least partially defining the heating region (12a-c), characterised in that the control unit (18a-c) is provided for selecting at least one identifying property of the identification of the heating region (12a-c) in the operating mode, depending on at least one operating parameter.
A cooling device for an electronic device , comprising: a heat sink that is in thermal contact with the electronic device; and a mist supplier that supplies mist (M) to the heat sink , arranged upstream of the heat sink in a flow direction of cooling air (CA) passing via the heat sink , wherein the mist supplier includes a mist generating source that generates the mist (M) included in the cooling air (CA), characterized in that the mist supplier includes a first flow path and a second flow path that share an inlet of the cooling air (CA) and an outlet of the cooling air (CA) that flows toward the heat sink , wherein the first flow path passes via the mist generating source , and the second flow path does not pass via the mist generating source , wherein an adjusting plate for cooling air is arranged in the second flow path between a branching point and a confluence point with the first flow path. a heat sink that is in thermal contact with the electronic device; and a mist supplier that supplies mist (M) to the heat sink , arranged upstream of the heat sink in a flow direction of cooling air (CA) passing via the heat sink , wherein the mist supplier includes a mist generating source that generates the mist (M) included in the cooling air (CA), characterized in that the mist supplier includes a first flow path and a second flow path that share an inlet of the cooling air (CA) and an outlet of the cooling air (CA) that flows toward the heat sink , wherein the first flow path passes via the mist generating source , and the second flow path does not pass via the mist generating source , wherein an adjusting plate for cooling air is arranged in the second flow path between a branching point and a confluence point with the first flow path.
A bearing assembly for a wind turbine , comprising; a bearing comprising an outer race , an inner race rotatable relative to the outer race , and a plurality of roller elements positioned within at least one raceway defined between the outer and inner races ; at least one position sensor arranged substantially flush with the at least one raceway , the at least one position sensor configured for monitoring movement of the plurality of roller elements ; and a controller communicatively coupled to the at least one position sensor , the controller configured to receive an output from the at least one position sensor and determine a position of one or more of the plurality of roller elements based on an output from the at least one position sensor .
A free radical curable inkjet ink containing a colour pigment and a polymerizable composition, wherein the colour pigment is a mixture of colour pigments including at least one colour pigment selected from a quinacridone pigment, a diketopyrrolo pyrrole pigment, and a mixed crystal thereof; wherein the average particle size of the colour pigment is between 80 nm and 240 nm as determined by a dynamic light scattering technique using a laser having an emission wavelength of 635 nm; wherein the polymerizable composition contains 95.0 to 99.0 wt% of monofunctional polymerizable compounds; and wherein the polymerizable composition has a double bond density DBD of at least 5.40 with the double bond density DBD being calculated by the formula: DBD = ∑ i = 1 to n n F i × wt % i MW i ∑ i = 1 to n n wt % i with: n representing the number of polymerizable compounds in the free radical curable inkjet ink; F(i) representing the functionality of the polymerizable compound i; MW(i) representing the molecular weight of the polymerizable compound i; and wt%(i) being the weight percentage of the polymerizable compound i based on the total weight of the polymerizable composition. wherein the colour pigment is a mixture of colour pigments including at least one colour pigment selected from a quinacridone pigment, a diketopyrrolo pyrrole pigment, and a mixed crystal thereof; wherein the average particle size of the colour pigment is between 80 nm and 240 nm as determined by a dynamic light scattering technique using a laser having an emission wavelength of 635 nm; wherein the polymerizable composition contains 95.0 to 99.0 wt% of monofunctional polymerizable compounds; and wherein the polymerizable composition has a double bond density DBD of at least 5.40 with the double bond density DBD being calculated by the formula: DBD = ∑ i = 1 to n n F i × wt % i MW i ∑ i = 1 to n n wt % i with: n representing the number of polymerizable compounds in the free radical curable inkjet ink; F(i) representing the functionality of the polymerizable compound i; MW(i) representing the molecular weight of the polymerizable compound i; and wt%(i) being the weight percentage of the polymerizable compound i based on the total weight of the polymerizable composition.
An indication information sending method, comprising: sending, by a first access and mobility management function , AMF, in response to the first AMF receiving a request message in which a user equipment, UE, requests to set up a packet data unit, PDU, session, a PDU session setup request to a session management function, SMF, the PDU session setup request carrying a first indication information; and sending, by the first AMF in response to the first AMF determining that a status parameter of interworking capability with a target network system of the PDU session changes, a PDU session modification request to the SMF, the PDU session modification request carrying the first indication information, wherein the first indication information is used for indicating whether the PDU session is capable of interworking with the target network system. sending, by a first access and mobility management function , AMF, in response to the first AMF receiving a request message in which a user equipment, UE, requests to set up a packet data unit, PDU, session, a PDU session setup request to a session management function, SMF, the PDU session setup request carrying a first indication information; and sending, by the first AMF in response to the first AMF determining that a status parameter of interworking capability with a target network system of the PDU session changes, a PDU session modification request to the SMF, the PDU session modification request carrying the first indication information, wherein the first indication information is used for indicating whether the PDU session is capable of interworking with the target network system.
A heart valve coaptation system for reducing regurgitation through the valve, comprising: a flexible rail having a ventricular anchor on a distal end thereof adapted to anchor into tissue within a ventricle; a delivery catheter having a lumen defining a central axis through which the flexible rail passes and including a locking mechanism for fixing relative axial positions of the delivery catheter and flexible rail ; and a coaptation member fixed on a distal end of the delivery catheter having an outer cover surrounding a compressible inner filler member and a generally cylindrical shape, the compressible inner filler member being mounted on the delivery catheter so that a majority of the filler member is radially offset from the central axis of the delivery catheter and the delivery catheter lies along one radial side thereof to form an offset spine of the coaptation member . a flexible rail having a ventricular anchor on a distal end thereof adapted to anchor into tissue within a ventricle; a delivery catheter having a lumen defining a central axis through which the flexible rail passes and including a locking mechanism for fixing relative axial positions of the delivery catheter and flexible rail ; and a coaptation member fixed on a distal end of the delivery catheter having an outer cover surrounding a compressible inner filler member and a generally cylindrical shape, the compressible inner filler member being mounted on the delivery catheter so that a majority of the filler member is radially offset from the central axis of the delivery catheter and the delivery catheter lies along one radial side thereof to form an offset spine of the coaptation member .
A method for manufacturing a nerve stimulator, comprising the following steps: S1: providing a metal underlayer, and cutting out a plurality of metal pins on the metal underlayer from a cutting side of the metal underlayer; S2: performing glass filling between the metal pins cut out on the metal underlayer, so that the cut-out metal pins are completely covered with glass; S3: performing double-sided thinning on the metal underlayer subjected to the glass filling, wherein the glass covering layer on the cutting side of the metal underlayer is thinned until the metal pins are exposed, and the metal underlayer on the other side of the metal underlayer is thinned and removed until all exposed to the glass substrate side; and S4: processing one side of the product obtained by the above step, so that the metal pins in the glass substrate form stimulation portions on the glass plane, and stimulation electrodes with the glass substrate are integrally formed. S1: providing a metal underlayer, and cutting out a plurality of metal pins on the metal underlayer from a cutting side of the metal underlayer; S2: performing glass filling between the metal pins cut out on the metal underlayer, so that the cut-out metal pins are completely covered with glass; S3: performing double-sided thinning on the metal underlayer subjected to the glass filling, wherein the glass covering layer on the cutting side of the metal underlayer is thinned until the metal pins are exposed, and the metal underlayer on the other side of the metal underlayer is thinned and removed until all exposed to the glass substrate side; and S4: processing one side of the product obtained by the above step, so that the metal pins in the glass substrate form stimulation portions on the glass plane, and stimulation electrodes with the glass substrate are integrally formed.
A hemocompatible adsorber for the separation of protein-bound uremic toxins contained in the blood or blood plasma of a patient and having a molecular mass of < 500 g/mol, preferably p-cresol, indoxyl sulfate, phenol, phenol derivatives, homocysteine, urofuranic acids, in particular 3-carboxy-4-methyl-5-propyl-2-furanopropionic acid, hippuric acid and p-hydroxyhippuric acid regarding their carrier proteins, preferably human albumin, characterized in that said hemocompatible adsorber comprises a polymer based on a cyclic oligosaccharide disposed on a solid carrier component in at least one layer, and the polymer based on a cyclic oligosaccharide is selected from the group consisting of: poly(carboxymethyl-β-cyclodextrin) and poly(trimethylammonium-β-cyclodextrin) and cyclodextrins fused with epichlorohydrin, and the solid carrier component is a porous material based on polyether sulfone [PES], polysulfone [PSU], polyether ether ketones [PEEK], polyphenylsulfone [PPSU], polyoxymethylene [POM], polyphenol, polyamides, in particular nylon, polystyrene, polycarbonate or polymers containing acrylonitrile or a methylallylsulfonate salt or copolymers thereof.
A portable shock detector (10, 40, 60 or 80) for detecting water conditions that can produce electric shock in a body of water, comprising: a housing adapted to float on top of the body of water; an electrical detector located in said housing; a first water electrode (21, 23, 25; 21a, 23a, 25a; 48, 49; 63, 64; 82, 73, 86, 87) for at least partially immersing in a body of water, said first water electrode in electrical communication with said electrical detector while being electrically isolated from said housing; a second electrode (17, 21, 23, 25; 21a, 23a, 25a; 48, 49; 63, 64; 82, 73, 86, 87), said second electrode in electrical communication with said electrical detector while being electrically isolated from said housing; and an indicator (14, 31; 43, 43a; 46, 47; 64, 66; 88, 89, 90, 91) for alerting a person of the presence of an electric field that would injure or electrocute a person in response to a signal from the electrical detector. a housing adapted to float on top of the body of water; an electrical detector located in said housing; a first water electrode (21, 23, 25; 21a, 23a, 25a; 48, 49; 63, 64; 82, 73, 86, 87) for at least partially immersing in a body of water, said first water electrode in electrical communication with said electrical detector while being electrically isolated from said housing; a second electrode (17, 21, 23, 25; 21a, 23a, 25a; 48, 49; 63, 64; 82, 73, 86, 87), said second electrode in electrical communication with said electrical detector while being electrically isolated from said housing; and an indicator (14, 31; 43, 43a; 46, 47; 64, 66; 88, 89, 90, 91) for alerting a person of the presence of an electric field that would injure or electrocute a person in response to a signal from the electrical detector.
A foam injection system for a cementitious slurry mixing and dispensing assembly , the foam injection system comprising: a foam injection body , the foam injection body defining a slurry passageway and a port passageway , the port passageway having a port opening in fluid communication with the slurry passageway ; a first port insert , the first port insert defining a first foam passageway having a first orifice with a first orifice size (∅ 1 , ∅ 4 ), the first port insert adapted to removably mount to the foam injection body such that the first foam passageway is in fluid communication with the slurry passageway via the port opening of the port passageway ; and a second port insert , the second port insert defining a second foam passageway having a second orifice with a second orifice size (∅ 3 , ∅ 5 ), the second port insert adapted to removably mount to the foam injection body such that the second foam passageway is in fluid communication with the slurry passageway via the port opening of the port passageway , and the second orifice size (∅ 3 , ∅ 5 ) being different than the first orifice size (∅ 1 , ∅ 4 ). a foam injection body , the foam injection body defining a slurry passageway and a port passageway , the port passageway having a port opening in fluid communication with the slurry passageway ; a first port insert , the first port insert defining a first foam passageway having a first orifice with a first orifice size (∅ 1 , ∅ 4 ), the first port insert adapted to removably mount to the foam injection body such that the first foam passageway is in fluid communication with the slurry passageway via the port opening of the port passageway ; and a second port insert , the second port insert defining a second foam passageway having a second orifice with a second orifice size (∅ 3 , ∅ 5 ), the second port insert adapted to removably mount to the foam injection body such that the second foam passageway is in fluid communication with the slurry passageway via the port opening of the port passageway , and the second orifice size (∅ 3 , ∅ 5 ) being different than the first orifice size (∅ 1 , ∅ 4 ).
A static electricity preventing circuit, comprising: a power source voltage supply unit configured to apply a power source voltage to drive a display panel , wherein the display panel comprises a plurality of pixels respectively displaying one or more images through light emission according to one or more data voltages of a plurality of image data signals; a signal wire unit configured to transmit a plurality of lighting test signals (Test_S) for a lighting test of the plurality of pixels included in the display panel ; and a resistor unit positioned between the power source voltage supply unit and the signal wire unit and configured to discharge static electricity generated in the signal wire unit through the power source voltage supply unit wherein the resistor unit is characterized by comprising: a semiconductor layer including a predetermined impurity doping region (P300) doped with at least one semiconductor impurity; an intrinsic semiconductor region where the semiconductor impurity is not doped; and a gate metal layer formed on the semiconductor layer via an insulation layer (L100) that is interposed between the gate metal layer and the semiconductor layer , wherein the gate metal layer is in a floated state when the static electricity is not dissipated, wherein the impurity doping region of the semiconductor layer comprises: a first impurity doping region (P300) electrically connected to the signal wire unit; and a second impurity doping region (P300) facing the first impurity doping region and electrically connected to the power source voltage supply unit and wherein the gate metal layer is formed on a remaining region (NP300) except for the first impurity doping region and the second impurity doping region in the semiconductor layer; and wherein a channel is formed between the first impurity doping region and the second impurity doping region in the semiconductor layer due to static electricity generated in the signal wire unit. a power source voltage supply unit configured to apply a power source voltage to drive a display panel , wherein the display panel comprises a plurality of pixels respectively displaying one or more images through light emission according to one or more data voltages of a plurality of image data signals; a signal wire unit configured to transmit a plurality of lighting test signals (Test_S) for a lighting test of the plurality of pixels included in the display panel ; a first impurity doping region (P300) electrically connected to the signal wire unit; and a second impurity doping region (P300) facing the first impurity doping region and electrically connected to the power source voltage supply unit and wherein the gate metal layer is formed on a remaining region (NP300) except for the first impurity doping region and the second impurity doping region in the semiconductor layer; and wherein a channel is formed between the first impurity doping region and the second impurity doping region in the semiconductor layer due to static electricity generated in the signal wire unit.