mhurhangee/patent-ind-claim-en huggingface dataset:
A method for building a swimming pool, which can be an above-ground, semi-inground or inground swimming pool, comprising the following steps: - first step, during which several suspension struts are erected in prescribed positions on the ground, each suspension strut coprising an upper vertical upright , a lower ground-engaging foot , which is fixed to the upright and which is cantilevered from the upright , a support having a bearing surface turned upwards, the bearing surface being located at a larger height than the foot , the support being fixed to the foot and/or to the upright , - second step, which is subsequent to the first step and during which stacked wall blades (L) or walls (P) are positioned between the suspension struts on their bearing surfaces , - third step, which is subsequent to the second step and during which a concrete slab (DB) or concrete trench (TB) is poured on the ground at a determined height (HB) of the feet , the concrete slab (DB) or concrete trench (TB) extending up to a level lower than or equal to the bottom of the lowest wall blades (L) or up to the bottom of the wall (P). - first step, during which several suspension struts are erected in prescribed positions on the ground, each suspension strut coprising an upper vertical upright , a lower ground-engaging foot , which is fixed to the upright and which is cantilevered from the upright , a support having a bearing surface turned upwards, the bearing surface being located at a larger height than the foot , the support being fixed to the foot and/or to the upright , - second step, which is subsequent to the first step and during which stacked wall blades (L) or walls (P) are positioned between the suspension struts on their bearing surfaces , - third step, which is subsequent to the second step and during which a concrete slab (DB) or concrete trench (TB) is poured on the ground at a determined height (HB) of the feet , the concrete slab (DB) or concrete trench (TB) extending up to a level lower than or equal to the bottom of the lowest wall blades (L) or up to the bottom of the wall (P).
An ophthalmic Lens Precursor comprising: a Lens Precursor Form ; and a Fluent Lens Reactive Mixture wherein the Lens Precursor Form is a solid component having a first optical surface and a second surface defined by the operation of a Voxel-based lithographic system, wherein the Fluent Lens Reactive Mixture is in contact with the second surface of the Lens Precursor Form ; and characterized in that the Lens Precursor Form has topographical depressions in certain locations of the second surface of the Lens Precursor Form to guide the Fluent Lens Reactive Mixture . a Lens Precursor Form ; and a Fluent Lens Reactive Mixture wherein the Lens Precursor Form is a solid component having a first optical surface and a second surface defined by the operation of a Voxel-based lithographic system, wherein the Fluent Lens Reactive Mixture is in contact with the second surface of the Lens Precursor Form ; and characterized in that the Lens Precursor Form has topographical depressions in certain locations of the second surface of the Lens Precursor Form to guide the Fluent Lens Reactive Mixture .
A use of characteristics of gut microbiota metagenome as a screening marker of Acarbose efficacy in patients with Type 2 diabetes, wherein the characteristic of gut microbiota metagenome is Bacteroides enterotype.
An outfeed device for a packaging assembly configured to form and seal a plurality of packages containing a pourable product; said outfeed device comprising an input station (I), at which said outfeed device receives, in use, said packages , and an output station (O), at which said packages exit, in use, from said outfeed device ; characterized by comprising at least one selectively operable cart element cyclically movable along an endless path (P), comprising a receiving portion defining a receiving seat for picking one single package at a time at said input station (I), housing at least part of said package , and being configured to bring said package from said input station (I) to said output station (O); and by further comprising an endless track defining said path (P); said cart element comprising a main portion , operatively coupled with said track so as to be cyclically movable along said path (P), and a holding portion , carried by said main portion and carrying, in turn, said receiving portion , wherein said holding portion is movable with respect to said main portion along a relative axis (A) transversal to said path (P) between: - an operative position, in which said holding portion is extracted from said main portion and is moved away from said path (P) for picking or releasing, in use, said package ; and - an idle position, in which said holding portion is retracted towards said main portion . - an operative position, in which said holding portion is extracted from said main portion and is moved away from said path (P) for picking or releasing, in use, said package ; and - an idle position, in which said holding portion is retracted towards said main portion .
A buoyant structure comprising: a hull having an upper frustoconical portion having inward-sloping walls disposed above a lower frustoconical portion having outward-sloping walls, and a circular keel ; characterised by : a tunnel with a tunnel floor formed within said hull at a waterline elevation, said tunnel opening to an exterior of said hull and dimensioned so as to receive a watercraft therein; and a boatlift assembly disposed within said tunnel for lifting the watercraft while contained in the tunnel; wherein said hull includes a main deck that completely covers said tunnel . a hull having an upper frustoconical portion having inward-sloping walls disposed above a lower frustoconical portion having outward-sloping walls, and a circular keel ; characterised by : a tunnel with a tunnel floor formed within said hull at a waterline elevation, said tunnel opening to an exterior of said hull and dimensioned so as to receive a watercraft therein; and a boatlift assembly disposed within said tunnel for lifting the watercraft while contained in the tunnel; wherein said hull includes a main deck that completely covers said tunnel . a tunnel with a tunnel floor formed within said hull at a waterline elevation, said tunnel opening to an exterior of said hull and dimensioned so as to receive a watercraft therein; and a boatlift assembly disposed within said tunnel for lifting the watercraft while contained in the tunnel; wherein said hull includes a main deck that completely covers said tunnel .
System consisting of a charging device and a vehicle energy converter for a motor vehicle, having a charging connection for line-connected energetic coupling to a motor vehicle-external charging station , a high-voltage connection for electrically connecting the charging device to a high-voltage on-board power supply of the motor vehicle and a charging device energy converter electrically coupled to the charging connection and the high-voltage connection , wherein the charging device energy converter for converting electrical energy between the charging connection and the high-voltage connection has an electrical inductance as an electrical energy store, which is at least partially designed as an electronic main coil , wherein the charging device has a low-voltage connection for connecting to a low-voltage on-board power supply of the motor vehicle as well as an electronic auxiliary coil which is coupled magnetically to the main coil and electrically to the low-voltage connection and which is configured to provide electrical energy for the low-voltage on-board power supply , wherein, during proper operation of the motor vehicle, the high-voltage on-board power supply and the low-voltage on-board power supply are coupled energetically by means of the vehicle energy converter in order to provide electrical energy from the high-voltage on-board power supply for the low-voltage on-board power supply and the auxiliary coil is configured to be able to provide the required power for the low-voltage on-board power supply during the charging operation, characterised in that , during the charging operation, the auxiliary coil already provides the low-voltage on-board power supply with the electrical voltage in a magnitude which is adapted such that it can be used by the low-voltage on-board power supply without further transformation, wherein the charging device has a detecting unit which is configured to detect the energetic coupling of the charging device to the charging station and to output a corresponding charging signal in order to deactivate the vehicle energy converter , such that the energy supply is carried out via the auxiliary coil and the low-voltage connection of the charging device .
A trampoline comprising: a trampoline frame having legs, wherein the trampoline frame has a trampoline frame horizontal portion ; a trampoline bed suspended across the trampoline frame horizontal portion ; springs extending between the trampoline frame horizontal portion and trampoline bed ; an enclosure connected to the trampoline frame, wherein the enclosure has an enclosure upper support , wherein the enclosure supports an enclosure net; a pad system covering the springs and at least partially the trampoline frame horizontal portion , wherein the pad system includes an inside pad mounted above the trampoline bed ; and the enclosure net is double layered with an outside net and an inside net characterized in that a substantial gap is disclosed between the inside net and the outside net , so that the user can be retained by the inside net initially, then retained by the outside net so that the pair of nets have a dual stage activation such that they act as a pair of springs for retaining the user within the bounding area. a trampoline frame having legs, wherein the trampoline frame has a trampoline frame horizontal portion ; a trampoline bed suspended across the trampoline frame horizontal portion ; springs extending between the trampoline frame horizontal portion and trampoline bed ; an enclosure connected to the trampoline frame, wherein the enclosure has an enclosure upper support , wherein the enclosure supports an enclosure net; a pad system covering the springs and at least partially the trampoline frame horizontal portion , wherein the pad system includes an inside pad mounted above the trampoline bed ; and the enclosure net is double layered with an outside net and an inside net characterized in that a substantial gap is disclosed between the inside net and the outside net , so that the user can be retained by the inside net initially, then retained by the outside net so that the pair of nets have a dual stage activation such that they act as a pair of springs for retaining the user within the bounding area.
A terminal comprising: a reception section configured to receive first downlink control information, DCI, for scheduling a first transmission of uplink shared channel in a first given period with a first length of a plurality of different lengths and second downlink control information, DCI, for scheduling a second transmission of uplink shared channel in a second given period with a second length of the plurality of different lengths, the second length different from the first length; and a control section configured to control, for each of the first and second transmission of uplink shared channel, a transmission power of the transmission of uplink shared channel based on an accumulation value of transmission power control, TPC, commands in the DCI that are accumulated irrespective of the length of the respective given period. a reception section configured to receive first downlink control information, DCI, for scheduling a first transmission of uplink shared channel in a first given period with a first length of a plurality of different lengths and second downlink control information, DCI, for scheduling a second transmission of uplink shared channel in a second given period with a second length of the plurality of different lengths, the second length different from the first length; and a control section configured to control, for each of the first and second transmission of uplink shared channel, a transmission power of the transmission of uplink shared channel based on an accumulation value of transmission power control, TPC, commands in the DCI that are accumulated irrespective of the length of the respective given period.
A method for coating a turbine engine component , said method comprising the steps of: placing said component into a chamber ; injecting a non-reactive carrier gas containing a coating material into said chamber; and forming a coating on a desired portion (61; 62) of said component by locally heating said desired portion of said component by redirecting a directed energy beam onto said desired portion of said component; wherein the method further comprises maintaining said non-reactive carrier gas containing said coating material at a temperature lower than the deposition temperature of said coating material; wherein said component placing step comprises placing a turbine vane pack having a plurality of airfoils in said chamber; wherein said coating forming step comprises forming a coating on hidden portions of said airfoils; wherein said redirecting step comprises articulating a redirecting surface mounted within the chamber so that the directed energy beam is directed onto said desired portion of said component; wherein said chamber has a transparent layer through which said energy beam is directed to the redirecting surface; and wherein said redirecting surface is mounted within the chamber to a wall of said chamber. placing said component into a chamber ; injecting a non-reactive carrier gas containing a coating material into said chamber; and forming a coating on a desired portion (61; 62) of said component by locally heating said desired portion of said component by redirecting a directed energy beam onto said desired portion of said component; wherein the method further comprises maintaining said non-reactive carrier gas containing said coating material at a temperature lower than the deposition temperature of said coating material; wherein said component placing step comprises placing a turbine vane pack having a plurality of airfoils in said chamber; wherein said coating forming step comprises forming a coating on hidden portions of said airfoils; wherein said redirecting step comprises articulating a redirecting surface mounted within the chamber so that the directed energy beam is directed onto said desired portion of said component; wherein said chamber has a transparent layer through which said energy beam is directed to the redirecting surface; and wherein said redirecting surface is mounted within the chamber to a wall of said chamber.
A wiper motor actuating device for an electrically drivable wiper motor , comprising: at least one filtering unit to compensate voltage errors generated by the wiper motor in an electric circuit , and at least one fuse element for interrupting a ground electric circuit in case of a failure of the at least one filtering unit , characterized in that the at least one fuse element is electrically connected between a ground electric circuit of the at least one filtering unit and a ground of the wiper motor , wherein the at least one fuse element is provided to interrupt the ground electric circuit if a current in the at least one filtering unit exceeds a predetermined threshold value.
An eductor for use in a water treatment system, comprising: an eductor body having an inlet end and an opposite outlet end , said body defining an interior with a nozzle chamber and a flared conical portion ; a jet nozzle dimensioned for location in said nozzle chamber , defining an internal passage in fluid communication with said interior ; characterized in having a duckbill valve located in said internal passage and including a base from which project a pair of inherently biased, complementary flaps , free ends of said flaps oriented to open towards said outlet end ; and a mesh cap with a porous exterior wall defining a cavity in fluid communication with said interior , said cap having an open end engageable in said inlet end of said eductor body so that upon attachment of said mesh cap to said inlet end , said duckbill valve is held in position in said internal passage of said jet nozzle . an eductor body having an inlet end and an opposite outlet end , said body defining an interior with a nozzle chamber and a flared conical portion ; a jet nozzle dimensioned for location in said nozzle chamber , defining an internal passage in fluid communication with said interior ; characterized in having a duckbill valve located in said internal passage and including a base from which project a pair of inherently biased, complementary flaps , free ends of said flaps oriented to open towards said outlet end ; and a mesh cap with a porous exterior wall defining a cavity in fluid communication with said interior , said cap having an open end engageable in said inlet end of said eductor body so that upon attachment of said mesh cap to said inlet end , said duckbill valve is held in position in said internal passage of said jet nozzle .
Sanitary tub (D) in the form of a bath or shower tub, in particular a shower tray, made of steel enamel, with a base , with a drain opening formed in the base , and with an annular flange which defines a connecting surface (4.1) and is arranged on the underside of the base of the tub (D) and surrounds the drain opening , the flange being connected to a drain housing of a drain fitting or being prepared for releasable connection to a drain housing of a drain fitting , wherein the drain opening being provided with a cover hood which has spacers on its underside, characterized in that the flange is manufactured separately from the tub and being connected in a liquid-tight manner to the underside of the tub (D) without a connecting counterpart bearing against the upper side of the base of the tub (D), the cover hood bearing with the spacers on an inlet surface (4.2) of the flange which lies lower relative to the connecting surface (4.1) of the flange . made of steel enamel, with a base , with a drain opening formed in the base , and with an annular flange which defines a connecting surface (4.1) and is arranged on the underside of the base of the tub (D) and surrounds the drain opening , the flange being connected to a drain housing of a drain fitting or being prepared for releasable connection to a drain housing of a drain fitting , wherein the drain opening being provided with a cover hood which has spacers on its underside, characterized in that the flange is manufactured separately from the tub and being connected in a liquid-tight manner to the underside of the tub (D) without a connecting counterpart bearing against the upper side of the base of the tub (D), the cover hood bearing with the spacers on an inlet surface (4.2) of the flange which lies lower relative to the connecting surface (4.1) of the flange .
Method for recording a magnetic resonance image data set of an investigation region of a patient with a magnetic resonance device, wherein for the recording of magnetic resonance data a multislice imaging technique is applied with simultaneous at least partial undersampling in the slice plane, wherein magnetic resonance data is read out from a plurality of excited slices simultaneously and, by means of a slice separation algorithm which is calibrated by means of reference data recorded in a separate reference scan, is allocated to the simultaneously read-out slices , after which an undersampling algorithm compensating for the undersampling in the slice plane is applied to the undersampled magnetic resonance data of the individual slices , characterised in that the magnetic resonance data is recorded with a different degree of sampling in at least two subregions of the sampled k-space in the slice plane, with a completed sampled subregion about the k-space centre and an undersampled outer subregion of the sampled k-space, and before the use of the slice separation algorithm is split into at least two portions that are each associated with one subregion , each of one fixed degree of sampling, to each of which the slice separation algorithm is applied separately with a corresponding slice separation core, wherein the portions are recombined slice by slice to determine the magnetic resonance image data set .
Hysteresis clutch , particularly for transmitting of rotational energy in machines, having a first rotor rotatable about a rotation axis (Ax) and comprising a number M of permanent magnets with a first coercive field strength (H C1 ), having prismatic wedge-shaped pole pieces arranged on the first rotor , which have trapezoidal axially oriented end faces, wherein the permanent magnets of the first rotor have a trapezoidal cross-section and are arranged in pockets having a trapezoidal cross-section, being formed between adjacent pole pieces , and having a narrow side radially on the outside and a broad side radially on the inside, having a second rotor rotatable about the rotation axis (Ax) comprising a number S of permanent magnets with a second coercive field strength (H C2 ) which is lower than the first coercive field strength (H C1 ), wherein the number S of the permanent magnets of the second rotor is at least two and the product of the number M times the number S divided by 180 is a power of the number two, i.e.: M*S/180=2 N , wherein N is a natural number [N=0, 1, 2, 3 ...], having a truncated cone-shaped or cylindrical air gap formed between the first rotor and the second rotor . having a first rotor rotatable about a rotation axis (Ax) and comprising a number M of permanent magnets with a first coercive field strength (H C1 ), having prismatic wedge-shaped pole pieces arranged on the first rotor , which have trapezoidal axially oriented end faces, wherein the permanent magnets of the first rotor have a trapezoidal cross-section and are arranged in pockets having a trapezoidal cross-section, being formed between adjacent pole pieces , and having a narrow side radially on the outside and a broad side radially on the inside, having a second rotor rotatable about the rotation axis (Ax) comprising a number S of permanent magnets with a second coercive field strength (H C2 ) which is lower than the first coercive field strength (H C1 ), wherein the number S of the permanent magnets of the second rotor is at least two and the product of the number M times the number S divided by 180 is a power of the number two, i.e.: M*S/180=2 N , wherein N is a natural number [N=0, 1, 2, 3 ...], having a truncated cone-shaped or cylindrical air gap formed between the first rotor and the second rotor .
A binding component holding sheet configured to detachably hold a binding component obtained by spirally winding a wire rod, the binding component holding sheet comprising: a holder configured to hold the binding component by insertion of a circumferential portion of the spirally wound binding component , characterized in that the holder is configured to hold the binding component so that an area greater than a half of the binding component in a circumferential direction protrudes to one side of the binding component holding sheet and an area less than the half of the binding component in the circumferential direction protrudes to the other side of the binding component holding sheet . a holder configured to hold the binding component by insertion of a circumferential portion of the spirally wound binding component , characterized in that the holder is configured to hold the binding component so that an area greater than a half of the binding component in a circumferential direction protrudes to one side of the binding component holding sheet and an area less than the half of the binding component in the circumferential direction protrudes to the other side of the binding component holding sheet .