mhurhangee/ep-ind-claims huggingface dataset:
A linear compressor, comprising: a shell; a suction inlet, through which a refrigerant is introduced into the linear compressor; a discharge outlet, through which the refrigerant is discharged from the linear compressor; a cylinder disposed within the shell to accommodate a piston reciprocated to compress the refrigerant introduced through the suction inlet; a frame that accommodates the cylinder, the frame being mounted inside the shell; and a discharge cover coupled to a surface of the frame to discharge the refrigerant compressed by the piston to the discharge outlet, wherein a surface of the cylinder that faces the discharge cover is spaced a predetermined distance from the discharge cover and a front edge of the cylinder is stepped at a height less than a height of the front surface of the frame. a shell; a suction inlet, through which a refrigerant is introduced into the linear compressor; a discharge outlet, through which the refrigerant is discharged from the linear compressor; a cylinder disposed within the shell to accommodate a piston reciprocated to compress the refrigerant introduced through the suction inlet; a frame that accommodates the cylinder, the frame being mounted inside the shell; and a discharge cover coupled to a surface of the frame to discharge the refrigerant compressed by the piston to the discharge outlet, wherein a surface of the cylinder that faces the discharge cover is spaced a predetermined distance from the discharge cover and a front edge of the cylinder is stepped at a height less than a height of the front surface of the frame.
A method for quantifying a substance, comprising: introducing a sample containing a measurement target substance to a biosensor which comprises an enzyme electrode comprising an electrode and an oxidoreductase placed on the electrode in a state where direct electron transfer with the electrode occurs without involvement of an electron transfer mediator; and a counter electrode; applying an AC voltage to the enzyme electrode to carry out impedance measurement; and calculating the concentration of the substance based on an index obtained by the impedance measurement. introducing a sample containing a measurement target substance to a biosensor which comprises an enzyme electrode comprising an electrode and an oxidoreductase placed on the electrode in a state where direct electron transfer with the electrode occurs without involvement of an electron transfer mediator; and a counter electrode; applying an AC voltage to the enzyme electrode to carry out impedance measurement; and calculating the concentration of the substance based on an index obtained by the impedance measurement.
A vehicle comprising a frame, ground engaging elements (4, 6), an engine for motively driving one or more of the ground engaging elements, the vehicle being characterized by an air valve positioned intermediate an air intake and the engine for controlling the speed of the engine wherein the air valve is comprised of a valve body having an upper end, and a lower end having an intake side and an exhaust side, the intake side comprising a raised and contoured section, a gate valve member positioned within the valve body and operated by a guillotine, the gate valve member providing opened and closed positions, wherein in the closed position, the gate valve member is positioned behind the raised and contoured section, and a diaphragm positioned at the valve body upper end and operatively connected to the guillotine, a first pressure chamber being defined above and a second pressure chamber being defined below, the diaphragm.
Nonwoven fabric, comprising a multi-layer structure comprising i) at least one melt blown layer comprising melt blown fibers comprising a first propylene polymer having a pentad isotacticity (mmmm) of more than 94.1 %, and ii) at least one spunbonded layer comprising spunbonded fibers comprising a second propylene polymer having a) a pentad isotacticity (mmmm) below 93.7 %, b) a melting temperature Tm below 164 °C, wherein the second propylene polymer is featured by an amount of 2,1 erythro regio-defects equal or below 0.4 mol.-%, and wherein the second propylene polymer is free of phthalic acid esters as well as their respective decomposition products. i) at least one melt blown layer comprising melt blown fibers comprising a first propylene polymer having a pentad isotacticity (mmmm) of more than 94.1 %, and ii) at least one spunbonded layer comprising spunbonded fibers comprising a second propylene polymer having a) a pentad isotacticity (mmmm) below 93.7 %, b) a melting temperature Tm below 164 °C, wherein the second propylene polymer is featured by an amount of 2,1 erythro regio-defects equal or below 0.4 mol.-%, and wherein the second propylene polymer is free of phthalic acid esters as well as their respective decomposition products. a) a pentad isotacticity (mmmm) below 93.7 %, b) a melting temperature Tm below 164 °C,
A product comprising a decellularised natural multi-composite bone transplant material characterised by the absence or substantial absence of cells in the whole composite, wherein the multi-composite bone transplant material is a bone-connective tissue-bone composite or osteochondral composite, and wherein the substantial absence is between 90% and up to 100% removal of cells from all parts of the multi-composite transplant product, wherein the total genomic DNA (gDNA) content of all tissue types in the multi-composite product is between 0 to 10% of the native tissue.
A method for configuring a transmission configuration indicator, TCI, performed by a terminal device, comprising: receiving a media access control control element, MAC CE, activation command sent from a base station, wherein the MAC CE activation command maps a pair of downlink, DL, TCI state and uplink, UL, TCI state to a downlink control information, DCI, field named transmission configuration indication of DCI format 1_1 and DCI format 1_2, and the DL TCI state in the pair provides parameters for a DL transmission and the UL TCI state in the pair provides parameters for an UL transmission; and determining, based on the MAC CE activation command, the parameters for the DL transmission and the parameters for the UL transmission of the terminal device, wherein the DL transmission includes transmission via a physical downlink control channel, PDCCH, or a physical downlink shared channel, PDSCH, and/or, the UL transmission includes transmission via a physical uplink control channel, PUCCH, or a physical uplink shared channel, PUSCH. receiving a media access control control element, MAC CE, activation command sent from a base station, wherein the MAC CE activation command maps a pair of downlink, DL, TCI state and uplink, UL, TCI state to a downlink control information, DCI, field named transmission configuration indication of DCI format 1_1 and DCI format 1_2, and the DL TCI state in the pair provides parameters for a DL transmission and the UL TCI state in the pair provides parameters for an UL transmission; and determining, based on the MAC CE activation command, the parameters for the DL transmission and the parameters for the UL transmission of the terminal device, wherein the DL transmission includes transmission via a physical downlink control channel, PDCCH, or a physical downlink shared channel, PDSCH, and/or, the UL transmission includes transmission via a physical uplink control channel, PUCCH, or a physical uplink shared channel, PUSCH.
Burner for combustion of a hydrogen-containing fuel, comprising a burner unit (4, 21) which is accommodated within a feed for a secondary oxidant and comprises a fuel feed connected to an inlet for a hydrogen-containing fuel and a feed for a primary oxidant, and comprising a swirl device (15, 15') disposed in the feed for the secondary oxidant, characterized in that upstream of the fuel feed of the burner unit (4, 21) is a mixing zone into which there open the inlet for hydrogen and at least one inlet for a second gaseous fuel, and the swirl device (15, 15') and the burner unit (4, 21) are movable relative to one another, wherein the burner unit (4, 21) is accommodated within the feed for the secondary oxidant so as to be movable axially with respect to the latter and with respect to the swirl device (15, 15') and/or the swirl device (15, 15') is accommodated within the feed for the secondary oxidant so as to be movable axially with respect to the latter and to the burner unit (4, 21). in that upstream of the fuel feed of the burner unit (4, 21) is a mixing zone into which there open the inlet for hydrogen and at least one inlet for a second gaseous fuel, and the swirl device (15, 15') and the burner unit (4, 21) are movable relative to one another, wherein the burner unit (4, 21) is accommodated within the feed for the secondary oxidant so as to be movable axially with respect to the latter and with respect to the swirl device (15, 15') and/or the swirl device (15, 15') is accommodated within the feed for the secondary oxidant so as to be movable axially with respect to the latter and to the burner unit (4, 21).
An agricultural implement comprising a central main chassis member having a support structure with support arms connected to the support structure for movement between a working position and a transport position, the support arms being provided with operating elements remote from the support structure, the support structure defining a working width between the operating elements and the central main chassis member, and each support arm comprising an inner part displaceable with respect to an outer part, the operating element of the respective support arm being operably connected to the inner part, each of the support arms being adjustable in the working position between a length corresponding to a minimum working width and a length greater than the minimum working width and in which in the transport position a distance between the operating elements and the central main chassis member is less than the minimum working width, in which in a headland position located between the working position and the transport position the support arms are adjustable such that a distance between the operating elements and the main chassis member is less than the length corresponding to the minimum working width, characterised in that the central main chassis member comprises a first upper arcuate part and a second lower arcuate part radially displaced a first distance from the first arcuate part, the upper arcuate part cooperating with an inner end of the inner part to define the minimum working width and the lower arcuate surface cooperating with an inner end of the inner part to enable a distance between the operating elements and the central main chassis member that is less than the minimum working width.
A dental article comprising: a preformed dental crown (10; 20; 30) that comprises a self-supporting side-generic external shape selected from the group consisting of incisor, canine, premolar, and molar; wherein the side-generic external shape is symmetrical about a plane of symmetry in facial-lingual direction; and wherein the preformed dental crown (10; 20; 30) comprises a hardenable composition that has sufficient malleability such that the side-generic external shape can be formed into a left-side specific or right-side specific adjusted external shape. a preformed dental crown (10; 20; 30) that comprises a self-supporting side-generic external shape selected from the group consisting of incisor, canine, premolar, and molar; wherein the side-generic external shape is symmetrical about a plane of symmetry in facial-lingual direction; and wherein the preformed dental crown (10; 20; 30) comprises a hardenable composition that has sufficient malleability such that the side-generic external shape can be formed into a left-side specific or right-side specific adjusted external shape.
Delivering tap with double turret (9.3) for a container for liquids of the keg type made of plastic material, preferably polyethylenterephtalate, PET, comprising: • a main body; • at least one covering device placed at a first end of said main body and equipped with at least two turrets (9.3), one for entering gas into said main body and one for exiting liquid from said main body; • at least two pistons contained in said main body and each operatively coupled, with a respective one of said turrets (9.3), by means of O-rings, preferably with circular section, assembled in respective recesses (8.4) created on the pistons, for driving the opening of a turret (9.3) dedicated to exiting liquid simultaneously with the opening of the other turret (9.3) dedicated to entering gas adapted to push outside the liquid contained in the container; • at least one bottom placed at a second end of said main body opposite to said first end, said bottom being operatively coupled with said pistons by means of metallic springs assembled on said pistons for driving its operation; and characterized in that it further comprises: • at least one tamper-evident seal placed above and around said covering device in order to prevent an undesired external access to said turrets (9.3). • a main body; • at least one covering device placed at a first end of said main body and equipped with at least two turrets (9.3), one for entering gas into said main body and one for exiting liquid from said main body; • at least two pistons contained in said main body and each operatively coupled, with a respective one of said turrets (9.3), by means of O-rings, preferably with circular section, assembled in respective recesses (8.4) created on the pistons, for driving the opening of a turret (9.3) dedicated to exiting liquid simultaneously with the opening of the other turret (9.3) dedicated to entering gas adapted to push outside the liquid contained in the container; • at least one bottom placed at a second end of said main body opposite to said first end, said bottom being operatively coupled with said pistons by means of metallic springs assembled on said pistons for driving its operation; and characterized in that it further comprises: • at least one tamper-evident seal placed above and around said covering device in order to prevent an undesired external access to said turrets (9.3).
A rotary tablet press comprising a housing including a compression section, a turret including a die disc, a top punch guide, a bottom punch guide, and a plurality of punches (25, 35), said turret defining an axial direction (α) and a radial direction (r), the punches being arranged at a predefined radius defining a pitch (p) of the turret, said turret being positioned in the compression section in a position of use of the rotary tablet press, and a number of auxiliary components, characterized in that the rotary tablet press comprises a bearing assembly connected to the turret and providing support to at least one auxiliary component of the rotary tablet press, that the bearing assembly comprises a bearing and a support means for the at least one auxiliary component, and that the bearing is positioned outside the pitch (p) of the turret in the radial direction (r), whereby a reference point relative to the turret is provided by the bearing assembly.
A method of selective plasma etching of a composite object comprising at least two layers of different materials A and B, the layer of material A at least partially covering the layer of material B, said method using a treatment system comprising: - a vacuum treatment chamber comprising a support on which the object to be treated is placed; and - at least two subassemblies (21,22) eac h comprising at least one plasma source (210,220) for generating a plasma, each plasma source (210,220) of a subassembly (21,22) being supplied by a radiofrequency power Pi and by a gas i of flow rate ni, independently of the other sub-assembly or subassemblies; the plasma generated by a subassembly being a partially ionized gas or gaseous mixture of a different chemical nature from the plasma generated by the other subassembly or subassemblies, the method comprising the following steps: • a step for generating a first plasma by a first of the subassemblies, and using the first plasma to treat at least one first region of the object comprising the material B on the surface, said treatment using the first plasma consisting of a passivation or activation step of material B; • a step for generating a second plasma by a second of the subassemblies, and using the second plasma to treat at least one second region of said object comprising the material A on the surface, said treatment using the second plasma consisting of a partial or total removal of material A, said method being able to start either by the passivation or activation step using the first plasma, or by the removal step using the second plasma. - a vacuum treatment chamber comprising a support on which the object to be treated is placed; and - at least two subassemblies (21,22) eac h comprising at least one plasma source (210,220) for generating a plasma, each plasma source (210,220) of a subassembly (21,22) being supplied by a radiofrequency power Pi and by a gas i of flow rate ni, independently of the other sub-assembly or subassemblies; the plasma generated by a subassembly being a partially ionized gas or gaseous mixture of a different chemical nature from the plasma generated by the other subassembly or subassemblies, • a step for generating a first plasma by a first of the subassemblies, and using the first plasma to treat at least one first region of the object comprising the material B on the surface, said treatment using the first plasma consisting of a passivation or activation step of material B; • a step for generating a second plasma by a second of the subassemblies, and using the second plasma to treat at least one second region of said object comprising the material A on the surface, said treatment using the second plasma consisting of a partial or total removal of material A, said method being able to start either by the passivation or activation step using the first plasma, or by the removal step using the second plasma.
A method for processing a bone graft material using a tooth, the method comprising steps of: (a) cutting a tooth extracted from a patient at the boundary between the dental crown and the dental root of the tooth; (b) removing the soft tissue of the dental root cut; (c) quick-freezing the dental root and pulverizing the same to prepare a powder having an average diameter of 200 μm to 1,500 μm; (d) degreasing the powder; (e) deliming the powder; (f) dehydrating the powder; (g) degreasing the powder once again; and (h) sterilizing the degreased and dehydrated powder to prepare a bone graft material, and further comprising the step of mixing an additive obtained from the dental crown and having higher osteoconduction with the powder before the step (h). (a) cutting a tooth extracted from a patient at the boundary between the dental crown and the dental root of the tooth; (b) removing the soft tissue of the dental root cut; (c) quick-freezing the dental root and pulverizing the same to prepare a powder having an average diameter of 200 μm to 1,500 μm; (d) degreasing the powder; (e) deliming the powder; (f) dehydrating the powder; (g) degreasing the powder once again; and (h) sterilizing the degreased and dehydrated powder to prepare a bone graft material,
Method for noise modulation of an electric motor, wherein the electric motor is a multi-phase synchronous motor that is driven using a vector control by means of a motor control unit, wherein actual values for the rotated current components id and iq are obtained in a control system, wherein id represents the magnetizing current and iq represents the torque-generating current of the synchronous motor, and wherein the actual values are compared with predetermined reference values (iq_soll, id_soll), wherein the differences between the actual values and the reference values are converted into manipulated variables in a duty-cycle for a PWM generator via a first controller and a first transformation stage, in order to regulate the actual values (iq, id) with respect to the reference values (iq_soll, id_soll), characterized in that the current component forming the magnetizing current (id) is measured as a function of an acoustic state by a measuring device, and transmitted to the engine control unit by means of a signal output, wherein it is adapted to a desired acoustic state by means of an acoustic controller (22, 28).
A process for the preparation of a phytosterol dispersion in water, the process comprising the steps of: a) mixing and dispersing in a mechanically stirred closed vessel provided with a heat transfer system at 150-200°C one or more phytosterols and one or more emulsifiers in water to obtain an emulsion; b) homogenizing the emulsion obtained in step a) in a homogenizer at a pressure of 30 to 3000 bars and 150 - 200°C to obtain a homogenized mixture; and c) cooling the homogenized mixture of step b) to obtain a dispersion of phytosterol or phytosterols in water. a) mixing and dispersing in a mechanically stirred closed vessel provided with a heat transfer system at 150-200°C one or more phytosterols and one or more emulsifiers in water to obtain an emulsion; b) homogenizing the emulsion obtained in step a) in a homogenizer at a pressure of 30 to 3000 bars and 150 - 200°C to obtain a homogenized mixture; and c) cooling the homogenized mixture of step b) to obtain a dispersion of phytosterol or phytosterols in water.
A method of dispatching a trackless vehicle along a set of predetermined ride paths of a trackless ride system (100, 300) comprising a ride path comprising a plurality of optional predefined ride paths (211, 212); a controllable wireless, trackless ride vehicle (20, 320) dispatchable and maneuverable along the plurality of optional predefined ride paths, the wireless, trackless ride vehicle comprising a controllable, motive trackless ride vehicle track navigator and an independent vehicle controller operatively in communication with the track navigator; a wireless communicator operatively in communication with the independent vehicle controller, the wireless communicator comprising a vehicle mounted rider interface adapted to capture discrete input from a predetermined set of wireless, trackless ride vehicle riders associated with the trackless ride vehicle; and a central controller operatively in communication with the independent vehicle controller, the method comprising: a. using the independent vehicle controller to receive a rider path selection request from a rider associated with the trackless ride vehicle via the wireless communicator to advance the trackless ride vehicle onto an optional predefined ride path of the plurality of optional predefined ride paths via the vehicle mounted rider interface; b. upon receipt of the rider selection request, validating the rider selection request against a predetermined set of validation criteria; and c. upon validation, commanding the trackless ride vehicle to proceed onto the requested optional predefined ride path. a. using the independent vehicle controller to receive a rider path selection request from a rider associated with the trackless ride vehicle via the wireless communicator to advance the trackless ride vehicle onto an optional predefined ride path of the plurality of optional predefined ride paths via the vehicle mounted rider interface; b. upon receipt of the rider selection request, validating the rider selection request against a predetermined set of validation criteria; and c. upon validation, commanding the trackless ride vehicle to proceed onto the requested optional predefined ride path.