mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the geographic position of at least one device using an apparatus that moves as one with said device and that includes a movement detector for detecting whether said apparatus is moving or in a stationary position, the method including: - a) a first step in which the apparatus determines, when the latter is stationary and has not undergone a movement for a first set length of time, network data comprising the identifiers (B1_ld-Bn_ld) of terminals of communication networks called first communication networks, which are located in the environment of the apparatus, and the received strength (B1_RSSI-Bn_RSSI) of the signals emitted by each terminal; - b) a second step in which said apparatus transmits said network data to a data processing unit via a communication network called the second communication network, if said second communication network is available; and in that - c) the determining first step and the transmitting second step are re-implemented after each movement of the apparatus to a new stationary position and at the end of a second set length of time after this new stationary position has been reached, said second length of time being identical or different from the first length of time, and in that the method includes: - d) a step in which a processing unit determines the geographic position of the device on the basis of the received network data. - a) a first step in which the apparatus determines, when the latter is stationary and has not undergone a movement for a first set length of time, network data comprising the identifiers (B1_ld-Bn_ld) of terminals of communication networks called first communication networks, which are located in the environment of the apparatus, and the received strength (B1_RSSI-Bn_RSSI) of the signals emitted by each terminal; - b) a second step in which said apparatus transmits said network data to a data processing unit via a communication network called the second communication network, if said second communication network is available; and in that - c) the determining first step and the transmitting second step are re-implemented after each movement of the apparatus to a new stationary position and at the end of a second set length of time after this new stationary position has been reached, said second length of time being identical or different from the first length of time, and in that the method includes: - d) a step in which a processing unit determines the geographic position of the device on the basis of the received network data.
A refrigerator comprising: a main body provided with a storage chamber (11, 12); a cool air generating chamber provided above the main body and connected with the storage chamber; an evaporator provided inside the cool air generating chamber; and a support portion provided in a ceiling inside the cool air generating chamber and variably provided in a mounting direction of the evaporator to support the evaporator, wherein the evaporator includes: a body portion including a refrigerant drain pipe; and a mounting portion provided above the body portion and slidably mounted in the support portion, and wherein the support portion is provided in a bendable shape, and includes: a first support portion fixed to an upper portion of the cool air generating chamber, and a second support portion provided with one end and another end, the one end being connected with the first support portion, and the other end being movable up and down and slidably coupled to the mounting portion of the evaporator. a main body provided with a storage chamber (11, 12); a cool air generating chamber provided above the main body and connected with the storage chamber; an evaporator provided inside the cool air generating chamber; and a support portion provided in a ceiling inside the cool air generating chamber and variably provided in a mounting direction of the evaporator to support the evaporator, wherein the evaporator includes: a body portion including a refrigerant drain pipe; and a mounting portion provided above the body portion and slidably mounted in the support portion, and a body portion including a refrigerant drain pipe; and a mounting portion provided above the body portion and slidably mounted in the support portion, and wherein the support portion is provided in a bendable shape, and includes: a first support portion fixed to an upper portion of the cool air generating chamber, and a second support portion provided with one end and another end, the one end being connected with the first support portion, and the other end being movable up and down and slidably coupled to the mounting portion of the evaporator. a first support portion fixed to an upper portion of the cool air generating chamber, and a second support portion provided with one end and another end, the one end being connected with the first support portion, and the other end being movable up and down and slidably coupled to the mounting portion of the evaporator.
A measuring probe comprising an electrode and a protection device against a measuring medium, wherein - a shrink tube, as the protection device, is shrink-fitted in a surrounding manner onto the electrode, - a shielding pipe is disposed between the electrode and a sensor head disposed at a rear side of the electrode, and wherein - the shrink tube, at the rear side of the electrode, is shrink-fitted up to over at least a part of the shielding pipe, characterized in that - the shrink tube is made from a water-repellent material with a hydrophobic character or includes such a material, and - the shrink tube is formed from a plastic, so that its external surface has a lower frictional value than the surface of the components surrounded by it, wherein the electrode with the shrink tube, or the electrode and a part of the components, which are disposed on the rear side of the electrode and onto which the shrink tube is shrink-fitted in an at least partially surrounding manner, are surrounded by a tube as a surrounding external protection device. - a shrink tube, as the protection device, is shrink-fitted in a surrounding manner onto the electrode, - a shielding pipe is disposed between the electrode and a sensor head disposed at a rear side of the electrode, and wherein - the shrink tube, at the rear side of the electrode, is shrink-fitted up to over at least a part of the shielding pipe, characterized in that - the shrink tube is made from a water-repellent material with a hydrophobic character or includes such a material, and - the shrink tube is formed from a plastic, so that its external surface has a lower frictional value than the surface of the components surrounded by it, wherein the electrode with the shrink tube, or the electrode and a part of the components, which are disposed on the rear side of the electrode and onto which the shrink tube is shrink-fitted in an at least partially surrounding manner, are surrounded by a tube as a surrounding external protection device.
A sound attenuating trim part, comprising at least one insulating area with acoustic mass-spring characteristics comprising at least a mass layer and a decoupling layer adjacent to the mass layer, the mass layer consists of a porous fibrous layer and a barrier layer, with the barrier layer being located between the porous fibrous layer and the decoupling layer and all layers are laminated together, characterized in that the porous fibrous layer at least in the insulating area is adjusted to have a dynamic Young's modulus (Pa) of at least 4 ⁢ π 2 ⋅ 10 - 6 ⋅ t p ⋅ v 2 ⋅ AW b ⋅ AW p 3 + AW p 2 12 AW b + AW p, with AW b being area weight (g/m 2) of the barrier layer, AW p being area weight (g/m 2) of the porous fibrous layer, tp being thickness (mm) of the porous fibrous layer and v (Hz) being the radiation frequency; whereby the radiation frequency v is at least 3000 (Hz), and whereby the barrier layer has an area weight of at least 400 (g/m 2).
A method, implemented by a wireless device, the method comprising: performing a radio resource control, RRC, connection setup procedure for a dual connectivity connection with a base station, wherein the dual connectivity connection is an LTE-LTE dual connectivity connection, an LTE-NR dual connectivity connection or an NR-NR dual connectivity connection, wherein performing the RRC connection setup procedure comprises providing an indication that the wireless device supports reporting intermodulation issues to the base station; receiving an indication that the wireless device is allowed to report intermodulation issues from the base station; determining that an intermodulation issue is occurring at the wireless device; providing an indication of the intermodulation issue to the base station; and receiving first configuration information from the base station, wherein the first configuration information configures the wireless device for single uplink carrier communication, wherein configuring the wireless device for single uplink carrier communication implements a multiplexing technique to allow the wireless device to maintain the dual connectivity connection, and wherein the configuration information is received based at least in part on the indication of the intermodulation issue. performing a radio resource control, RRC, connection setup procedure for a dual connectivity connection with a base station, wherein the dual connectivity connection is an LTE-LTE dual connectivity connection, an LTE-NR dual connectivity connection or an NR-NR dual connectivity connection, wherein performing the RRC connection setup procedure comprises providing an indication that the wireless device supports reporting intermodulation issues to the base station; receiving an indication that the wireless device is allowed to report intermodulation issues from the base station; determining that an intermodulation issue is occurring at the wireless device; providing an indication of the intermodulation issue to the base station; and receiving first configuration information from the base station, wherein the first configuration information configures the wireless device for single uplink carrier communication, wherein configuring the wireless device for single uplink carrier communication implements a multiplexing technique to allow the wireless device to maintain the dual connectivity connection, and wherein the configuration information is received based at least in part on the indication of the intermodulation issue.
A method of controlling a semiconductor laser that has a first wavelength selection portion having a heater and a second wavelength selection portion having a different wavelength property from the first wavelength selection portion, and is mounted on a temperature control device, characterised by comprising: a first step of starting a laser oscillation of the semiconductor laser under a condition that a wavelength peak of the first wavelength selection portion and a wavelength peak of the second wavelength selection portion overlap with each other at a desirable wavelength; a second step of correcting the temperature of the temperature control device according to a detection result of a wavelength detector that is a detected output wavelength of the semiconductor laser; and a third step of controlling the heater of the first wavelength selection portion, characterised in that in said third step the heater of the first wavelength selection portion is controlled in such a way that changes in the differentials between the wavelength properties of the first wavelength selection portion and the second wavelength selection portion are reduced, the differentials being caused by temperature corrections brought about by the temperature control device in the second step. a first step of starting a laser oscillation of the semiconductor laser under a condition that a wavelength peak of the first wavelength selection portion and a wavelength peak of the second wavelength selection portion overlap with each other at a desirable wavelength; a second step of correcting the temperature of the temperature control device according to a detection result of a wavelength detector that is a detected output wavelength of the semiconductor laser; and a third step of controlling the heater of the first wavelength selection portion, characterised in that in said third step the heater of the first wavelength selection portion is controlled in such a way that changes in the differentials between the wavelength properties of the first wavelength selection portion and the second wavelength selection portion are reduced, the differentials being caused by temperature corrections brought about by the temperature control device in the second step.
A game system, comprising: one or more real-world toy objects; a database of real-world toy objects available for inclusion as virtual objects in a virtual environment, each virtual object being associated with an object identifier of a corresponding real-world toy object and with accompanying information about one or more virtual properties of the virtual object; an image capturing device; and a data processing system configured to: - receive a captured image of a real-world toy object in a real-world scene; - use a trained convolutional classification model to predict a matching object identifier; - add one or more virtual objects associated with the matched object identifier to a virtual environment; and - affect a gameplay experience based on the accompanying information; wherein the data processing system is further configured to: - use the trained convolutional classification model to create a list of candidate object identifiers and associated likelihood scores indicative of a likelihood of the respective candidate object identifiers matching the real-world toy object; - for each of the candidate object identifiers and based on the captured image, estimate a placement of the corresponding virtual object in a virtual scene corresponding to the real-world scene; - compute a respective correspondence score for each candidate object identifier based on a correlation of the estimated placement with at least the captured image; - select a candidate object identifier and a corresponding placement based at least on the computed correspondence scores. - receive a captured image of a real-world toy object in a real-world scene; - use a trained convolutional classification model to predict a matching object identifier; - add one or more virtual objects associated with the matched object identifier to a virtual environment; and - affect a gameplay experience based on the accompanying information; - use the trained convolutional classification model to create a list of candidate object identifiers and associated likelihood scores indicative of a likelihood of the respective candidate object identifiers matching the real-world toy object; - for each of the candidate object identifiers and based on the captured image, estimate a placement of the corresponding virtual object in a virtual scene corresponding to the real-world scene; - compute a respective correspondence score for each candidate object identifier based on a correlation of the estimated placement with at least the captured image; - select a candidate object identifier and a corresponding placement based at least on the computed correspondence scores.
An apparatus for holding a workpiece under tension while the workpiece is coated using a cold spraying process, the apparatus comprising: a frame; a first spindle rotatably coupled to the frame; a first coupler configured to couple the first spindle to a first end of the workpiece; a second spindle rotatably coupled to the frame; a second coupler configured to couple the second spindle to a second end of the workpiece; a backing plate fixed to the frame and configured to be disposed on one side of the workpiece and configured to assist in supporting the workpiece during the cold spraying process; a first motor configured to rotate the first spindle; and a second motor configure to rotate the second spindle, wherein a distance between the first and second couplers (406, 416) is adjustable to hold the workpiece under tension between the couplers (406, 416) while the one or more operations are performed, and wherein the workpiece is rotatable with the couplers (406, 416) and the spindles (404, 416) relative to the frame and the backing plate about a common axis of rotation extending between the couplers (406, 416) and wherein the first motor and the second motor are configured to operate substantially synchronously in opposite rotational directions to affect substantially simultaneous co-rotation of the first and second spindles (404, 414). a frame; a first spindle rotatably coupled to the frame; a first coupler configured to couple the first spindle to a first end of the workpiece; a second spindle rotatably coupled to the frame; a second coupler configured to couple the second spindle to a second end of the workpiece; a backing plate fixed to the frame and configured to be disposed on one side of the workpiece and configured to assist in supporting the workpiece during the cold spraying process; a first motor configured to rotate the first spindle; and a second motor configure to rotate the second spindle, wherein a distance between the first and second couplers (406, 416) is adjustable to hold the workpiece under tension between the couplers (406, 416) while the one or more operations are performed, and wherein the workpiece is rotatable with the couplers (406, 416) and the spindles (404, 416) relative to the frame and the backing plate about a common axis of rotation extending between the couplers (406, 416) and wherein the first motor and the second motor are configured to operate substantially synchronously in opposite rotational directions to affect substantially simultaneous co-rotation of the first and second spindles (404, 414).
A complex of formula of a bisphosphonate compound of formula, the complex adapted to target a bone, wherein, in formula, C represents a carrier to which the bisphosphonate compound of formula is bound thereto, and wherein in formula, R 1 and R 2 are each independently selected from the group consisting of hydrogen, halogen, hydroxyl, optionally substituted C 1 -C 10 alkyl, optionally substituted C 2 -C 6 alkenyl, optionally substituted C 2 -C 6 alkynyl, optionally substituted C 1 -C 6 acyl, optionally substituted C 3-8 cycloalkyl, and optionally substituted C 3-8 cycloalkenyl; L 1 and L 2 are each a linker having a main chain comprising 0 to 20 main chain atoms; and the carrier C is selected from the group consisting of hydroxyapatite (Ca 10 (PO 4) 6 2), calcium sulphate, hydroxyapatite composites of calcium sulphate and hydroxyapatite, hydroxyapatite composites of plaster of Paris, chitosan and hydroxyapatite, β-Ca 3 PO 4, tricalcium phosphate, mono or biphasic calcium phosphate, calcium deficient apatite (Ca 10-x (PO 4) 6-x (HPO 4) x 2-x), a polymeric carrier coated with calcium phosphate and combinations thereof; and/or wherein the carrier is coated with hydroxyapatite or calcium phosphate. in formula, C represents a carrier to which the bisphosphonate compound of formula is bound thereto, and wherein in formula, R 1 and R 2 are each independently selected from the group consisting of hydrogen, halogen, hydroxyl, optionally substituted C 1 -C 10 alkyl, optionally substituted C 2 -C 6 alkenyl, optionally substituted C 2 -C 6 alkynyl, optionally substituted C 1 -C 6 acyl, optionally substituted C 3-8 cycloalkyl, and optionally substituted C 3-8 cycloalkenyl; L 1 and L 2 are each a linker having a main chain comprising 0 to 20 main chain atoms; and the carrier C is selected from the group consisting of hydroxyapatite (Ca 10 (PO 4) 6 2), calcium sulphate, hydroxyapatite composites of calcium sulphate and hydroxyapatite, hydroxyapatite composites of plaster of Paris, chitosan and hydroxyapatite, β-Ca 3 PO 4, tricalcium phosphate, mono or biphasic calcium phosphate, calcium deficient apatite (Ca 10-x (PO 4) 6-x (HPO 4) x 2-x), a polymeric carrier coated with calcium phosphate and combinations thereof; and/or wherein the carrier is coated with hydroxyapatite or calcium phosphate.
A polyaxial bone anchoring device including an anchoring element having a shaft for anchoring in a bone and a head; a receiving part having a top end and a bottom end, a channel for receiving a rod therein and a passage (53, 54, 55) extending from the top end to the bottom end and including a seat for receiving the head; a pressure element which is arranged in the passage and configured to exert pressure onto the head, wherein the head is pivotable with respect to the receiving part and can be locked at an angle by means of the pressure element; the pressure element comprising at least one recess (600a, 600b; 610a, 610b; 620a, 620b) facing the inner wall of the receiving part; the receiving part including at least one deformable portion (501a, 501b) provided at its inner wall, which upon deformation engages the recess (600a, 600b; 610a, 610b; 620a, 620b) at the pressure element; wherein the deformable portion (502a, 502b) and the recess (600a, 600b; 610a, 610b; 620a, 620b) are arranged such that by engagement of the deformable portion with the recess a force is exerted by the pressure element onto the head that maintains the head at an angular position by friction before locking the head, characterized in that when the pressure element is inserted into the receiving part and rests upon the head, the recess (600a, 600b; 610a, 610b; 620a, 620b) has a lower edge (601a, 601b, 611a, 611b; 621a, 621b) that is located above the deformable portion (501a, 501b) in an axial direction towards the top end, wherein the distance in the axial direction between the lower edge of the recess and the deformable portion (501a, 501b) is such that the deformed portion exerts a downward pressure onto the pressure element, when engaging the lower edge (601a, 601b; 611a, 611b; 621a, 621b) of the recess to generate a defined friction force between the head and the pressure element.
A seat for a construction machine, comprising a seat console, a device for lateral displacement of the seat in a transverse direction relative to the direction of travel of the construction machine, and a seat rotating device, characterized in that a stop limiter device is operative to limit the maximum allowable rotational angle of the seat in a variable manner, each time in dependence on the set position of the lateral displacement of the seat.
An aircraft comprising: - a turbine engine provided with a bypass duct, which surrounds an engine core, the bypass duct outputting a bypass exhaust flow when the turbine engine is in operation; - a bleed off-take arrangement for bleeding off compressed hot air from the turbine engine; - a wing comprising a bleed air duct for conveying compressed hot air that has been bled off from the turbine engine towards a fuselage; and - a pylon by means of which the turbine engine is suspended from the wing, the pylon comprising an opening with a covering structure projecting into the bypass exhaust flow and leaving a slit facing away from the bypass exhaust flow, the pylon and the wing being arranged so that an airflow path extends from openings in the wing to the slit left by the covering structure. - a turbine engine provided with a bypass duct, which surrounds an engine core, the bypass duct outputting a bypass exhaust flow when the turbine engine is in operation; - a bleed off-take arrangement for bleeding off compressed hot air from the turbine engine; - a wing comprising a bleed air duct for conveying compressed hot air that has been bled off from the turbine engine towards a fuselage; and - a pylon by means of which the turbine engine is suspended from the wing, the pylon comprising an opening with a covering structure projecting into the bypass exhaust flow and leaving a slit facing away from the bypass exhaust flow, the pylon and the wing being arranged so that an airflow path extends from openings in the wing to the slit left by the covering structure.