mhurhangee/ep-ind-claims huggingface dataset:
Expansion screw for orthodontic appliances, comprising at least one stem with at least a threaded portion extending along the longitudinal extension of said stem, at least one receiving body for receiving said threaded portion provided with a receiving hole complementarily shaped with respect to said threaded portion so as to allow its screwing, guide means for guiding said at least one receiving body, driving means (11, 12) for driving said stem, characterized in that it comprises a positioning tab composed of multiple parts (60, 61) associated with each other to support the expansion screw when the orthodontic appliance is made, said tab being provided with at least an appendix that can be stably inserted into a cavity exhibited by the expansion screw.
A passive particle separation system for an aircraft comprising: a plenum; an inlet for feeding outside air into the plenum, wherein the outside air has particles entrained therewith; a housing for enclosing the plenum; a standpipe installed on the housing; and a trash trap disposed at the base of the housing around the standpipe for accumulating particles released from the outside air, wherein the outside air enters the plenum via the inlet; wherein the plenum, housing, and standpipe interact to impact the outside air entering the plenum to cause the particles to be released from the outside air; wherein the standpipe comprises a filter through which the outside air is drawn into the top of the standpipe; wherein the plenum comprises an area adjacent the inlet which has a greater cross-sectional area than that of the inlet such that the outside air entering the inlet expands into a larger volume; wherein the plenum is arranged such that the outside air must change direction as it flows from the area towards the standpipe; and wherein the housing comprises a cylindrical area around the standpipe arranged such that the outside air continues to flow into the cylindrical area where it encounters additional direction changes, such that rotation is imparted to the outside air flow. a plenum; an inlet for feeding outside air into the plenum, wherein the outside air has particles entrained therewith; a housing for enclosing the plenum; a standpipe installed on the housing; and a trash trap disposed at the base of the housing around the standpipe for accumulating particles released from the outside air, wherein the outside air enters the plenum via the inlet; wherein the plenum, housing, and standpipe interact to impact the outside air entering the plenum to cause the particles to be released from the outside air; wherein the standpipe comprises a filter through which the outside air is drawn into the top of the standpipe; wherein the plenum comprises an area adjacent the inlet which has a greater cross-sectional area than that of the inlet such that the outside air entering the inlet expands into a larger volume; wherein the plenum is arranged such that the outside air must change direction as it flows from the area towards the standpipe; and wherein the housing comprises a cylindrical area around the standpipe arranged such that the outside air continues to flow into the cylindrical area where it encounters additional direction changes, such that rotation is imparted to the outside air flow.
A 3D printer having: a material casing accommodating a modeling material for modeling a 3D model; a light source unit supplying light onto the modeling material to cure the modeling material; a stage on which the modeling material cured by the light source unit is seated, the stage being disposed to be movable into the material casing; a stage driving unit connected to the stage to provide a driving force for moving the stage; and a control unit (509 controlling operations of the light source unit and the stage driving unit, wherein the light source unit is provided as an LED assembly for surface-illustrating light onto the modeling material, characterized in that the light source unit has an area corresponding to that of the bottom surface the modeling material within the material casing, and the stage driving unit is adapted to move the stage in three axes. a material casing accommodating a modeling material for modeling a 3D model; a light source unit supplying light onto the modeling material to cure the modeling material; a stage on which the modeling material cured by the light source unit is seated, the stage being disposed to be movable into the material casing; a stage driving unit connected to the stage to provide a driving force for moving the stage; and a control unit (509 controlling operations of the light source unit and the stage driving unit, wherein the light source unit is provided as an LED assembly for surface-illustrating light onto the modeling material, characterized in that the light source unit has an area corresponding to that of the bottom surface the modeling material within the material casing, and the stage driving unit is adapted to move the stage in three axes.
A method for supporting location services for a user equipment, UE, (105, 900) performed by an entity, the entity comprising at least an interface for receiving and sending messages in a network, a memory configured to store instructions and at least one processor coupled to the external interface and memory, the method comprising: obtaining a differential Angle of Arrival, DAOA, for a pair of directed beams transmitted by at least one base station (110, 114) and received at the UE; obtaining a differential Angle of Departure, DAOD, for the pair of directed beams transmitted by the at least one base station; comparing the DAOA to the DAOD to determine if each directed beam in the pair of directed beams is Line Of Sight, LOS, from the respective at least one base station to the UE; and determining a location estimate for the UE using at least one of the directed beams in the pair of directed beams when each directed beam in the pair of directed beams is LOS. obtaining a differential Angle of Arrival, DAOA, for a pair of directed beams transmitted by at least one base station (110, 114) and received at the UE; obtaining a differential Angle of Departure, DAOD, for the pair of directed beams transmitted by the at least one base station; comparing the DAOA to the DAOD to determine if each directed beam in the pair of directed beams is Line Of Sight, LOS, from the respective at least one base station to the UE; and determining a location estimate for the UE using at least one of the directed beams in the pair of directed beams when each directed beam in the pair of directed beams is LOS.
A first packet data conversion device for a sender, the packet data conversion device comprising: a data interface configured to provide first packet data according to a first network protocol, wherein the first network protocol is a Datagram Congestion Control Protocol, DCCP, wherein each packet of the first packet data comprises a first packet header; and a converter configured to convert the first packet data into second packet data, wherein the conversion is based on rearranging contents of the first packet header, wherein the rearranged first packet header indicates that the second packet data is generated according to a second network protocol, wherein the second network protocol is a User Datagram Protocol, UDP or a UDP-Lite protocol, characterized in that the rearranged first packet header shows at least the following bit fields in a definite sequence a Source Port, a Destination Port, a checksum coverage field CsCov, wherein the CsCov is extended to a size of a length field comprised in a packet header of the UDP or a UDP-Lite protocol, and a Checksum, wherein the rearranged header matches an UDP header, wherein the conversion is further based on changing a protocol field of the first packet header (815, 703) from indicating the first network protocol to indicating the second network protocol. a data interface configured to provide first packet data according to a first network protocol, wherein the first network protocol is a Datagram Congestion Control Protocol, DCCP, wherein each packet of the first packet data comprises a first packet header; and a converter configured to convert the first packet data into second packet data, wherein the conversion is based on rearranging contents of the first packet header, wherein the rearranged first packet header indicates that the second packet data is generated according to a second network protocol, wherein the second network protocol is a User Datagram Protocol, UDP or a UDP-Lite protocol, characterized in that
Cable fittings for a cable carrying medium voltage or high voltage in operation and having a conductor defined in axial direction and a cable insulation to encircle the conductor, while the conductor comprises several cores which are insulated one from the other, with a) a clamping part radially encircling the end portion of the conductor which is free from cable insulation and which is fixed to the conductor, while the clamping part prevents a deflection of the cores of the conductor in radial direction during the fixing of the cable fittings to the cable, b) a contact body, mechanically connected with the clamping part and electrically connected with the conductor, characterized in that c) the contact body contacts the end faces of the cores of the conductor pointing in axial direction by means of a layer of an electrically conductive contact means, in order to have at least an indirect electrical contact with the conductor, wherein d) the contact means consists of an entirety of electrically conductive balls, which can be filled between the conductor and the contact body. a) a clamping part radially encircling the end portion of the conductor which is free from cable insulation and which is fixed to the conductor, while the clamping part prevents a deflection of the cores of the conductor in radial direction during the fixing of the cable fittings to the cable, b) a contact body, mechanically connected with the clamping part and electrically connected with the conductor, c) the contact body contacts the end faces of the cores of the conductor pointing in axial direction by means of a layer of an electrically conductive contact means, in order to have at least an indirect electrical contact with the conductor, wherein d) the contact means consists of an entirety of electrically conductive balls, which can be filled between the conductor and the contact body.
A magnetic random access memory (MRAM) cell comprising a magnetic tunnel junction comprising: a synthetic storage layer formed from a first ferromagnetic layer having a first storage magnetization, a second ferromagnetic layer having a second storage magnetization and a spacer layer between the first and second ferromagnetic layers (231, 232), the spacer layer magnetically coupling the first and second ferromagnetic layers (231, 232) such that the first storage magnetization is oriented substantially anti-parallel with the second magnetization; a sense layer having a sense magnetization that is reversible; and a tunnel barrier layer between the sense layer and the storage layer; the first storage magnetization inducing a first local magnetic stray field and the second storage magnetization inducing a second local magnetic stray field, the difference between the first and second local magnetic stray fields (55, 56) corresponding to a net local magnetic stray field coupling the sense layer; characterized in that the thickness of the first ferromagnetic layer and the thickness of the second ferromagnetic layer are selected such that the net local magnetic stray field coupling the sense layer is below about 50 Oe. a synthetic storage layer formed from a first ferromagnetic layer having a first storage magnetization, a second ferromagnetic layer having a second storage magnetization and a spacer layer between the first and second ferromagnetic layers (231, 232), the spacer layer magnetically coupling the first and second ferromagnetic layers (231, 232) such that the first storage magnetization is oriented substantially anti-parallel with the second magnetization; a sense layer having a sense magnetization that is reversible; and a tunnel barrier layer between the sense layer and the storage layer; the first storage magnetization inducing a first local magnetic stray field and the second storage magnetization inducing a second local magnetic stray field, the difference between the first and second local magnetic stray fields (55, 56) corresponding to a net local magnetic stray field coupling the sense layer; characterized in that the thickness of the first ferromagnetic layer and the thickness of the second ferromagnetic layer are selected such that the net local magnetic stray field coupling the sense layer is below about 50 Oe.
A gas-barrier film laminate having at least two gas-barrier film layers laminated via an adhesive layer wherein each gas-barrier film layer has a substrate film, and at least one constitutive unit layer comprising an anchor coat layer and an inorganic thin film layer formed on at least one surface of the substrate film in that order, wherein the number of the bubbles having a diameter of at least 0.5 mm and the impurities having a diameter of at least 0.5 mm existing between the gas-barrier film layers is at most 3 in total per 100 cm 2, wherein the inorganic thin film layer comprises at least one selected from silicon oxide, silicon nitride, aluminium nitride and diamond like carbon, and wherein the gas-barrier film laminate has a moisture permeability at 40°C and 90% RH of at most 0.02 g/m 2 /24 hr.
An isolated light activated ion channel polypeptide comprising an amino acid sequence of a wild-type or modified light-activated Stigeoclonium helveticum channel polypeptide, wherein the amino acid sequence of the light-activated ion channel polypeptide comprises SEQ ID NO: 7 or the amino acid sequence of the light-activated ion channel polypeptide comprises a modified Stigeoclonium helveticum light-activated ion channel sequence having at least 70% identity to amino acids 61-295 of SEQ ID NO:7 and 95% identity to the remaining amino acids in the sequence set forth as SEQ ID NO:7; whereby a nucleic acid or polypeptide sequence may be naturally expressed in a cell or organism of a member of the Stigeoclonium genus, but provided that the sequence is not part of or included in a Stigeoclonium cell or organism, it is considered to be isolated.
A nucleic acid molecule comprising a nucleotide sequence encoding a co-stimulatory domain comprising an amino acid sequence set forth in SEQ ID NO: 8.
An indoor unit for an air conditioner, comprising: a body provided with an air outlet; an outer air deflector provided at the air outlet, and used to open and close the air outlet; an inner air deflector provided at the air outlet, wherein the inner air deflector is located on an inner side of the outer air deflector such that the inner air deflector is located within the indoor unit when the outer air deflector closes the air outlet, and the inner air deflector is formed with a plurality of vent holes penetrating the inner air deflector in a thickness direction, characterized in that: a total area of the plurality of vent holes being not smaller than 50% of a total area of the inner air deflector, and wherein each vent hole comprises a first hole section and a second hole section successively connected along an air outlet direction, and an outlet size of the first hole section is bigger than an inlet size of the second hole section to form a parting surface at a connection of the first hole section and the second hole section. a body provided with an air outlet; an outer air deflector provided at the air outlet, and used to open and close the air outlet; an inner air deflector provided at the air outlet, wherein the inner air deflector is located on an inner side of the outer air deflector such that the inner air deflector is located within the indoor unit when the outer air deflector closes the air outlet, and the inner air deflector is formed with a plurality of vent holes penetrating the inner air deflector in a thickness direction, characterized in that: a total area of the plurality of vent holes being not smaller than 50% of a total area of the inner air deflector, and wherein each vent hole comprises a first hole section and a second hole section successively connected along an air outlet direction, and an outlet size of the first hole section is bigger than an inlet size of the second hole section to form a parting surface at a connection of the first hole section and the second hole section. a total area of the plurality of vent holes being not smaller than 50% of a total area of the inner air deflector, and wherein each vent hole comprises a first hole section and a second hole section successively connected along an air outlet direction, and an outlet size of the first hole section is bigger than an inlet size of the second hole section to form a parting surface at a connection of the first hole section and the second hole section.
An electric power steering device comprising: a motor having two sets of windings (24a,24b) provided independently of each other; and a control unit including two inverter circuits (3a,3b) respectively supplying currents to the two sets of windings (24a,24b) and each composed of a plurality of switching elements (31U,32U), and two control circuits (4a,4b) respectively connected to the two inverter circuits (3a,3b), wherein the control unit includes a detection circuit (33U,33V,33W) for detecting current of each inverter circuit, and a detection terminal (36Uu,36Ud,36Vu,36Vd,36Wu,36Wd) extending from the detection circuit (33U,33V,33W), each inverter circuit (3a, 3b) having a plurality of circuit portions (3U, 3V, 3W), the control unit including a detection circuit (33U, 33V, 33W) per circuit portion (3U, 3V, 3W) of each inverter circuit(3a, 3b) and two detection terminals (36Uu,36Ud,36Vu,36Vd,36Wu,36Wd) per detection circuit (33U, 33V, 33W), characterized by: a plurality of shield walls (41j,41h,41i) made of metal is provided, each of the plurality of shield walls being for shielding noise emitted by driving of one of the two inverter circuits and being provided near the detection terminal (36Uu,36Ud,36Vu,36Vd,36Wu,36Wd) of the other inverter circuit, and at least one of the shield walls has a support member for supporting the control circuit. a motor having two sets of windings (24a,24b) provided independently of each other; and a control unit including two inverter circuits (3a,3b) respectively supplying currents to the two sets of windings (24a,24b) and each composed of a plurality of switching elements (31U,32U), and two control circuits (4a,4b) respectively connected to the two inverter circuits (3a,3b), wherein two inverter circuits (3a,3b) respectively supplying currents to the two sets of windings (24a,24b) and each composed of a plurality of switching elements (31U,32U), and two control circuits (4a,4b) respectively connected to the two inverter circuits (3a,3b), wherein the control unit includes a detection circuit (33U,33V,33W) for detecting current of each inverter circuit, and a detection terminal (36Uu,36Ud,36Vu,36Vd,36Wu,36Wd) extending from the detection circuit (33U,33V,33W), each inverter circuit (3a, 3b) having a plurality of circuit portions (3U, 3V, 3W), the control unit including a detection circuit (33U, 33V, 33W) per circuit portion (3U, 3V, 3W) of each inverter circuit(3a, 3b) and two detection terminals (36Uu,36Ud,36Vu,36Vd,36Wu,36Wd) per detection circuit (33U, 33V, 33W), a plurality of shield walls (41j,41h,41i) made of metal is provided, each of the plurality of shield walls being for shielding noise emitted by driving of one of the two inverter circuits and being provided near the detection terminal (36Uu,36Ud,36Vu,36Vd,36Wu,36Wd) of the other inverter circuit, and at least one of the shield walls has a support member for supporting the control circuit.
A harmonic time interleave, HTI, system, comprising: a sample clock configured to provide a reference signal; a summing component configured to receive the reference signal at a first input and a delayed harmonic signal derived from the reference signal at a second input, the summing component producing a summed reference signal; a splitter component configured to receive an input signal and having a plurality of outputs for developing at each of the plurality of outputs a respective output signal exhibiting substantially the same bandwidth as the input signal; a first plurality of delay blocks (112A-112n) each configured to receive a respective output signal from the splitter; a plurality of mixing components (114A-114n) each configured to receive the summed reference signal from the summing component and an output signal from a corresponding one of the first plurality of delay blocks (112A-112n); a plurality of digitizing components (116A-116n) each configured to receive the reference signal from the sample clock and an output from a corresponding one of the plurality of mixing components (114A-114n); and a controller implementing a poly-phase filter matrix block configured to receive an output from each of the plurality of digitizing components, and implementing an interleave reconstruction block configured to receive an output from the poly-phase filter matrix block and interleave time domain signal samples from each digitizing component (116A-116n) to create a substantially full-bandwidth digital representation of the input signal. a sample clock configured to provide a reference signal; a summing component configured to receive the reference signal at a first input and a delayed harmonic signal derived from the reference signal at a second input, the summing component producing a summed reference signal; a splitter component configured to receive an input signal and having a plurality of outputs for developing at each of the plurality of outputs a respective output signal exhibiting substantially the same bandwidth as the input signal; a first plurality of delay blocks (112A-112n) each configured to receive a respective output signal from the splitter; a plurality of mixing components (114A-114n) each configured to receive the summed reference signal from the summing component and an output signal from a corresponding one of the first plurality of delay blocks (112A-112n); a plurality of digitizing components (116A-116n) each configured to receive the reference signal from the sample clock and an output from a corresponding one of the plurality of mixing components (114A-114n); and a controller implementing a poly-phase filter matrix block configured to receive an output from each of the plurality of digitizing components, and implementing an interleave reconstruction block configured to receive an output from the poly-phase filter matrix block and interleave time domain signal samples from each digitizing component (116A-116n) to create a substantially full-bandwidth digital representation of the input signal.