mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: accessing positioning information stored in a database, the positioning information associated with wireless signaling measurements and observed timing differences, OTDs of signals received from pairs of base stations of a plurality of base stations, said wireless signaling measurements and OTDs being collected from a plurality of mobile terminals; and determining location information for a target mobile terminal (102-t) based, at least in part, on said positioning information and signaling information associated with said target mobile terminal (120-t), wherein determining the location information for the target mobile terminal includes determining the location information for the target mobile terminal based on an observed time difference of arrival, OTDOA, for the target mobile terminal and on at least one estimated real time difference, RTD for pairs of base stations, wherein the RTD is determined based, at least in part, on said OTDs collected from the plurality of mobile terminals. accessing positioning information stored in a database, the positioning information associated with wireless signaling measurements and observed timing differences, OTDs of signals received from pairs of base stations of a plurality of base stations, said wireless signaling measurements and OTDs being collected from a plurality of mobile terminals; and determining location information for a target mobile terminal (102-t) based, at least in part, on said positioning information and signaling information associated with said target mobile terminal (120-t), wherein determining the location information for the target mobile terminal includes determining the location information for the target mobile terminal based on an observed time difference of arrival, OTDOA, for the target mobile terminal and on at least one estimated real time difference, RTD for pairs of base stations, wherein the RTD is determined based, at least in part, on said OTDs collected from the plurality of mobile terminals.
Method for monitoring the current of an electrical hand machine tool operated by a battery by means of at least one counter, with: a) measuring of the electrical current taken from the battery during operation of the electrical device; b) incrementing of a counter reading (Z, Z1, Z2) of the counter by a certain increment, if the measured current within a certain counting interval is greater than a certain upper limit value (G1, G2); c) decrementing of the counter reading (Z, Z1, Z2) of the counter by a certain decrement if the measured current within the certain counting interval is smaller than the certain upper limit value (G1, G2); and d) switching off of the electrical device, if the counter reading (Z, Z1, Z2) of the counter is greater than a certain counter limit value (T1, T2), characterised in that a multiplicity of counters is provided, in which a certain increment, a certain decrement, a certain counting interval, a certain upper limit value (G1, G2) and a certain counter limit value (T1, T2) is allocated to the relevant counter.
An elevator safety gear trigger comprising: a casing, an electromagnet positioned at a bottom of the casing, a connection piece positioned within the casing, a longitudinal pull rod having a first end protruding into the casing from an upper end of the casing situated opposite to the bottom of the casing, the first end of the pull rod being connected via a first articulated joint to a connection piece, which is drawn into connection with the electromagnet when the electromagnet is activated, and a second end being attached with a second articulated joint to a first end of an arm, a second end of the arm being operatively connected to at least one safety gear, spring means surrounding the pull rod and extending between the arm and the top of the casing, the spring means being arranged to detach the connection piece and thereby also the pull rod from the electromagnet when the electromagnet is deactivated. a casing, an electromagnet positioned at a bottom of the casing, a connection piece positioned within the casing, a longitudinal pull rod having a first end protruding into the casing from an upper end of the casing situated opposite to the bottom of the casing, the first end of the pull rod being connected via a first articulated joint to a connection piece, which is drawn into connection with the electromagnet when the electromagnet is activated, and a second end being attached with a second articulated joint to a first end of an arm, a second end of the arm being operatively connected to at least one safety gear, spring means surrounding the pull rod and extending between the arm and the top of the casing, the spring means being arranged to detach the connection piece and thereby also the pull rod from the electromagnet when the electromagnet is deactivated.
A torque limiting driver system, comprising: a torque limiting driver including: a handle with a locking cap engagement protrusion; a shaft with a cam portion including a cam mating feature; and a locking cap including: a mating recess including a plurality of scallops along the outer edge of the mating recess and wherein the plurality of scallops are configured to interface with the locking cap engagement protrusion; a through-hole with through-hole mating feature configured to interface with the cam mating feature, wherein the locking cap is configured to engage the torque limiting driver to lock the rotation of the shaft with respect to the handle, and wherein the shaft includes a shaft recess, and the locking cap includes a snap arm configured to engage the shaft recess such that the locking cap is fixed to the torque limiting driver. a handle with a locking cap engagement protrusion; a shaft with a cam portion including a cam mating feature; and a locking cap including: a mating recess including a plurality of scallops along the outer edge of the mating recess and wherein the plurality of scallops are configured to interface with the locking cap engagement protrusion; a through-hole with through-hole mating feature configured to interface with the cam mating feature, a mating recess including a plurality of scallops along the outer edge of the mating recess and wherein the plurality of scallops are configured to interface with the locking cap engagement protrusion; a through-hole with through-hole mating feature configured to interface with the cam mating feature, wherein the locking cap is configured to engage the torque limiting driver to lock the rotation of the shaft with respect to the handle, and wherein the shaft includes a shaft recess, and the locking cap includes a snap arm configured to engage the shaft recess such that the locking cap is fixed to the torque limiting driver.
An apparatus, comprising: a first marker coupled to a garment at a first location, a second marker coupled to the garment at a second location, the garment configured to be coupled to a dynamic body in a fixed position relative to the dynamic body, characterised in that the first and second markers change in orientation relative to each other during a path of motion of the dynamic body and wherein the first and second markers are radio-opaque; a first localization element is coupled to the garment proximate the location of the first marker; and a second localization element is coupled to the garment proximate the location of the second marker, the first localization element and the second localization element comprising electromagnetic coils and each being coupled to a receiving device and configured to simultaneously send to the receiving device position data associated with a plurality of positions in three-dimensional space of the first localization element and position data associated with a plurality of positions in three-dimensional space of the second localization element during the path of motion of the dynamic body, wherein the first and second localization elements change in orientation relative to each other during the path of motion of the dynamic body, wherein the receiving device determines a distance (d1 - d6) between the position of the first localization element and the position of the second localization element based on the position data for each of a plurality of instants of time during the path of motion of the dynamic body. a first marker coupled to a garment at a first location, a second marker coupled to the garment at a second location, the garment configured to be coupled to a dynamic body in a fixed position relative to the dynamic body, characterised in that the first and second markers change in orientation relative to each other during a path of motion of the dynamic body and wherein the first and second markers are radio-opaque; a first localization element is coupled to the garment proximate the location of the first marker; and a second localization element is coupled to the garment proximate the location of the second marker, the first localization element and the second localization element comprising electromagnetic coils and each being coupled to a receiving device and configured to simultaneously send to the receiving device position data associated with a plurality of positions in three-dimensional space of the first localization element and position data associated with a plurality of positions in three-dimensional space of the second localization element during the path of motion of the dynamic body, wherein the first and second localization elements change in orientation relative to each other during the path of motion of the dynamic body, wherein the receiving device determines a distance (d1 - d6) between the position of the first localization element and the position of the second localization element based on the position data for each of a plurality of instants of time during the path of motion of the dynamic body.
A communications method comprising the steps of: A. Performing testing and calibration to obtain at least two sets of RF parameters corresponding to normal radiation index and another radiation index for the same antenna, wherein said another radiation index includes the radiation index that restricts the interference of cell phone electromagnetic field on hearing aids of people with hearing handicap, and storing said at least two sets of RF parameters; B. Calling a set of stored RF parameters corresponding to a selected radiation index for switching as needed; C. When the switching is successfully completed, configuring RF parameters corresponding to the above certain radiation index to all transmission modules for communications. A. Performing testing and calibration to obtain at least two sets of RF parameters corresponding to normal radiation index and another radiation index for the same antenna, wherein said another radiation index includes the radiation index that restricts the interference of cell phone electromagnetic field on hearing aids of people with hearing handicap, and storing said at least two sets of RF parameters; B. Calling a set of stored RF parameters corresponding to a selected radiation index for switching as needed; C. When the switching is successfully completed, configuring RF parameters corresponding to the above certain radiation index to all transmission modules for communications.
A particle separator for an additive manufacturing system comprising: an air supply device for producing an airstream; a hopper containing a mixed powder and configured to feed the powder into the airstream, wherein the mixed powder includes particles of variable weight; a housing configured to receive the airstream including the mixed powder, the housing having an inner wall, an outer wall, and a bend portion generally constructed by the inner and outer walls (58, 60); and first and second offtake holes (62, 66) in the housing, wherein a first cross-sectional flow area of the first offtake hole is smaller than a second cross-sectional flow area of the second offtake hole such that the second offtake hole accepts particles with a first size that is larger than a second size of particles that are accepted by the first offtake hole, characterised in that: the first and second offtake holes (62, 66) are disposed downstream of the bend portion with the first offtake hole located closer to the inner wall than the second offtake hole and the second offtake hole located closer to the outer wall than the first offtake hole; and the particle separator further comprises a turning vane disposed inside the housing and between the inner and outer walls (58, 60) generally at the bend portion. an air supply device for producing an airstream; a hopper containing a mixed powder and configured to feed the powder into the airstream, wherein the mixed powder includes particles of variable weight; a housing configured to receive the airstream including the mixed powder, the housing having an inner wall, an outer wall, and a bend portion generally constructed by the inner and outer walls (58, 60); and first and second offtake holes (62, 66) in the housing, wherein a first cross-sectional flow area of the first offtake hole is smaller than a second cross-sectional flow area of the second offtake hole such that the second offtake hole accepts particles with a first size that is larger than a second size of particles that are accepted by the first offtake hole, characterised in that: the first and second offtake holes (62, 66) are disposed downstream of the bend portion with the first offtake hole located closer to the inner wall than the second offtake hole and the second offtake hole located closer to the outer wall than the first offtake hole; and the particle separator further comprises a turning vane disposed inside the housing and between the inner and outer walls (58, 60) generally at the bend portion. the first and second offtake holes (62, 66) are disposed downstream of the bend portion with the first offtake hole located closer to the inner wall than the second offtake hole and the second offtake hole located closer to the outer wall than the first offtake hole; and the particle separator further comprises a turning vane disposed inside the housing and between the inner and outer walls (58, 60) generally at the bend portion.
A method of programming a welding-type system, comprising: - storing a plurality of welding programs in a pda, wherein storing includes uploading the at least one program, from a second welding-type system; - connecting the pda to the welding type system; - backing up welding programs stored in a controller of the welding-type system, comprising: • automatically retrieving all the welding programs from the controller; and • uploading said welding programs to the pda; - selecting at least one of the plurality of programs for downloading; - downloading the at least one of a plurality of programs to the welding-type system, wherein the plurality of programs are stored in a single file, and downloading includes sending a portion of the file. - storing a plurality of welding programs in a pda, wherein storing includes uploading the at least one program, from a second welding-type system; - connecting the pda to the welding type system; - backing up welding programs stored in a controller of the welding-type system, comprising: • automatically retrieving all the welding programs from the controller; and • uploading said welding programs to the pda; • automatically retrieving all the welding programs from the controller; and • uploading said welding programs to the pda; - selecting at least one of the plurality of programs for downloading; - downloading the at least one of a plurality of programs to the welding-type system, wherein the plurality of programs are stored in a single file, and downloading includes sending a portion of the file.
Flexible hose having a hose connection which has a sleeve-like union nut which engages around a sleeve-like connecting piece, which is connected to a hose end of the flexible hose and which, on its front end region facing away from the hose end, has an annular flange which bears rotatably on an annular ledge of a circumferential wall, and having at least one sealing ring, which is retained in a retaining groove formed on an outer circumferential side of the connecting piece, a clearance being provided between a sleeve inner circumference of the sleeve-like union nut and the hose, characterized in that the sealing ring radially seals off an annular gap provided between the connecting piece and the circumferential wall, and in that a clearance between the connecting piece and the circumferential wall and the clearance between the sleeve inner circumference of the union nut and the hose are dimensioned in such a way that the connecting piece and the circumferential wall can be tilted relative to each other, so that undesired clogging of the union nut and the connecting piece as a result of scale deposits can be avoided.
Tray for packaging bottles in superposed layers, comprising a plate provided with first housings on one surface for receiving each the bottom of a bottle placed on the tray and second housings on the surface opposite to said one surface of the plate for receiving the top of the bottles of the layer under the tray, at least a part of said first housings with a lateral wall comprising at least a portion of the lateral wall provided with a resilient element protruding from said wall portion so as to engage the bottle with push fit, wherein said wall portion provided with a resilient element forms a wall of separation between said first housing and a second housing, characterized in that said resilient element forms a part of the wall portion and includes a flexible leg that hinges around an axis, is arranged to protrude inside the second housing when pushed by a bottle within the first housing and either contacts the neck of the bottle from the layer below or reduces the gap from the neck of the bottle to the edge of the second housing.
A bearing device comprising a crankpin and connecting rod bearing for supporting the crankpin of an internal combustion engine, the crankpin having a discharge port (Sc) on its surface for supplying lubrication oil to a gap between the crankpin and the connecting rod bearing, the connecting rod bearing comprising a pair of half bearings (31,32), wherein the half bearing (31,32) comprises a main cylindrical portion including a central portion of the half bearing in a circumferential direction, and crush reliefs formed at both end portions of the half bearing (31,32) in the circumferential direction so that the thickness of walls of the end portions is smaller than that of a wall of the main cylindrical portion, characterized in that the half bearing further comprises a transitional region formed between at least the crush relief on a front side in a rotational direction of the crankpin and the main cylindrical portion so that the thickness of a wall of the transition region decreases toward the crush relief, and a plurality of crush relief grooves are formed in the crush relief to continuously extend parallel with the circumferential direction of the half bearing, and an axial groove is formed at an inner side end edge of the half bearing in the circumferential direction to continuously extend in an axial direction so that the crush relief grooves communicate directly with the axial groove.
System for vertical adjustment of a fabric delimiting an upper part of a net cage, as the fabric is running along a whole circumference of the net cage, wherein the system comprises: - an upper and a lower frame ring, and at least one lifting ring therebetween, wherein the fabric is fastened at its upper end to the upper frame ring or a lifting ring arranged close to the upper frame ring, and at its lower end to a lowermost lifting ring, - a number of stay lines running vertically between the upper and the lower frame rings and passing through the at least one lifting ring (6, 6A), and - a number of lifting lines being fastened to the lowermost lifting ring and running upwards therefrom, wherein the lifting lines are attached to each of the at least one lifting ring or passing through at least one lifting ring above the lowermost lifting ring, wherein the fabric is lifted by pulling the lifting lines. - an upper and a lower frame ring, and at least one lifting ring therebetween, wherein the fabric is fastened at its upper end to the upper frame ring or a lifting ring arranged close to the upper frame ring, and at its lower end to a lowermost lifting ring, - a number of stay lines running vertically between the upper and the lower frame rings and passing through the at least one lifting ring (6, 6A), and - a number of lifting lines being fastened to the lowermost lifting ring and running upwards therefrom, wherein the lifting lines are attached to each of the at least one lifting ring or passing through at least one lifting ring above the lowermost lifting ring, wherein the fabric is lifted by pulling the lifting lines.
A method of comparing a secondary oil recovery process with a tertiary oil recovery process, the secondary oil recovery process and the tertiary oil recovery process being applied to a substantially fluid-saturated porous medium containing an oil phase and an aqueous phase, the method comprising: (a) providing a first sample of the porous medium, the sample having within the pores thereof a known initial volume of the oil phase; (b) measuring a relaxation time for the fluid within the first sample; (c) subjecting the first sample to the secondary oil recovery process; (d) measuring a relaxation time for the fluid remaining within the first sample after the secondary oil recovery process; (e) providing a second sample of the porous medium, the second sample having within the pores thereof a substantially similar known initial volume of the oil phase; (f) measuring a relaxation time for the fluid within the second sample; (g) subjecting the second sample to the tertiary oil recovery process or, subsequent to step (d) and without carrying out steps (e) and (f), subjecting the first sample to the tertiary oil recovery process; (h) measuring a relaxation time for the fluid remaining within the second sample or first sample after the tertiary oil recovery process; and (i) using the relaxation time measurements in the calculation of a wettability index modification factor for the oil phase or the aqueous phase, thereby comparing the tertiary oil recovery process with the secondary oil recovery process. (a) providing a first sample of the porous medium, the sample having within the pores thereof a known initial volume of the oil phase; (b) measuring a relaxation time for the fluid within the first sample; (c) subjecting the first sample to the secondary oil recovery process; (d) measuring a relaxation time for the fluid remaining within the first sample after the secondary oil recovery process; (e) providing a second sample of the porous medium, the second sample having within the pores thereof a substantially similar known initial volume of the oil phase; (f) measuring a relaxation time for the fluid within the second sample; (g) subjecting the second sample to the tertiary oil recovery process or, subsequent to step (d) and without carrying out steps (e) and (f), subjecting the first sample to the tertiary oil recovery process; (h) measuring a relaxation time for the fluid remaining within the second sample or first sample after the tertiary oil recovery process; and (i) using the relaxation time measurements in the calculation of a wettability index modification factor for the oil phase or the aqueous phase, thereby comparing the tertiary oil recovery process with the secondary oil recovery process.