mhurhangee/ep-ind-claims huggingface dataset:
A foamed polypropylene composition comprising a propylene homo- and/or copolymer and glass fibres, wherein (i) the composition has a density of 50 to 950 kg/m 3, (ii) the tensile modulus tm (extrusion direction) measured according to ISO 527 in extrusion direction and the k-value measured according to ASTM C-177 satisfy the relation: tm extrusion direction MPa / k W / mK ≥ 9000 MPa ⋅ mK / W, and (iii) the glass fibres are present in an amount of from 1 to 30 wt.% of the total composition. (i) the composition has a density of 50 to 950 kg/m 3, (ii) the tensile modulus tm (extrusion direction) measured according to ISO 527 in extrusion direction and the k-value measured according to ASTM C-177 satisfy the relation: tm extrusion direction MPa / k W / mK ≥ 9000 MPa ⋅ mK / W, and (iii) the glass fibres are present in an amount of from 1 to 30 wt.% of the total composition.
An end-effector (122, 322) for a programmable motion device for use with a vacuum source, said end-effector comprising: an end-effector attachment portion (139, 339) for attaching the end-effector to the programmable motion device, said end-effector attachment portion including a vacuum channel (132, 332) coupled to the vacuum source; a contact portion (152, 352) of the end-effector (122, 322) for contacting an object to be acquired by the contact portion (152, 352) of the end-effector (122, 322); a flexible intermediate section (146, 346) including a contact end proximate the contact portion (152, 352) of the end-effector (122, 322), said flexible intermediate section (146, 346) of the end-effector (122, 322) being intermediate the end-effector attachment portion (139, 339) and the contact portion (152, 352) of the end-effector (122, 322), said flexible intermediate section (146, 346) including a bellows portion that extends radially outwardly of the vacuum channel; and characterized by further comprising a bellows insert (180, 380) that extends into the flexible intermediate section (146, 346) to inhibit air-flow from entering the bellows portion, and yet does not inhibit freedom of movement of the flexible intermediate section (146, 346). an end-effector attachment portion (139, 339) for attaching the end-effector to the programmable motion device, said end-effector attachment portion including a vacuum channel (132, 332) coupled to the vacuum source; a contact portion (152, 352) of the end-effector (122, 322) for contacting an object to be acquired by the contact portion (152, 352) of the end-effector (122, 322); a flexible intermediate section (146, 346) including a contact end proximate the contact portion (152, 352) of the end-effector (122, 322), said flexible intermediate section (146, 346) of the end-effector (122, 322) being intermediate the end-effector attachment portion (139, 339) and the contact portion (152, 352) of the end-effector (122, 322), said flexible intermediate section (146, 346) including a bellows portion that extends radially outwardly of the vacuum channel; and characterized by further comprising a bellows insert (180, 380) that extends into the flexible intermediate section (146, 346) to inhibit air-flow from entering the bellows portion, and yet does not inhibit freedom of movement of the flexible intermediate section (146, 346).
A method of wireless communication, comprising: receiving a resource assignment from a serving base station (1004, 1020, 1550, 1670) for a device-to-device, D2D, link with a transmitter (1010, 1560, 1650); attempting to receive a data packet from the transmitter (1010, 1560, 1650) based on the resource assignment; sending an acknowledgment, ACK, only to the serving base station (1004, 1020, 1550, 1670) when reception of the data packet succeeds; and sending a negative acknowledgment, NACK, only to the transmitter (1010, 1560, 1650) when the reception of the data packet fails. receiving a resource assignment from a serving base station (1004, 1020, 1550, 1670) for a device-to-device, D2D, link with a transmitter (1010, 1560, 1650); attempting to receive a data packet from the transmitter (1010, 1560, 1650) based on the resource assignment; sending an acknowledgment, ACK, only to the serving base station (1004, 1020, 1550, 1670) when reception of the data packet succeeds; and sending a negative acknowledgment, NACK, only to the transmitter (1010, 1560, 1650) when the reception of the data packet fails.
A process comprising: A) adding to a reactor an alkylbenzene, aluminum halide, and at least one aliphatic hydrocarbon solvent having in a range of 3 to 15 carbons; B) cooling the contents of the reactor to one or more temperatures in the a range of 0 to -50°C; C) adding to the reactor an amount of hydrogen halide acid sufficient to charge the reactor to a pressure in a range of 25 psig (172 kPa) to 200 psig (1379 kPa); D) adding to the reactor an amount of carbon monoxide sufficient to charge the reactor to a pressure in a range of 200 psig (1379 kPa) to 2000 psig (13,790 kPa); and E) maintaining a reaction temperature at one or more temperatures in the a range of -50°C to 20°C; thereby synthesizing a 4-alkylbenzaldehyde. A) adding to a reactor an alkylbenzene, aluminum halide, and at least one aliphatic hydrocarbon solvent having in a range of 3 to 15 carbons; B) cooling the contents of the reactor to one or more temperatures in the a range of 0 to -50°C; C) adding to the reactor an amount of hydrogen halide acid sufficient to charge the reactor to a pressure in a range of 25 psig (172 kPa) to 200 psig (1379 kPa); D) adding to the reactor an amount of carbon monoxide sufficient to charge the reactor to a pressure in a range of 200 psig (1379 kPa) to 2000 psig (13,790 kPa); and E) maintaining a reaction temperature at one or more temperatures in the a range of -50°C to 20°C;
A wireless communication method, comprising: receiving, by a wireless communication device from a base station, a list of open-loop power control parameter sets; receiving, by the wireless communication device from the base station a downlink control information, DCI, comprising an open-loop power control parameter set indicator, OLI, and a sounding reference signal, SRS, resource indicator, SRI, wherein, the OLI indicates a subset of the list of open-loop power control parameter sets, the SRI indicates an open-loop power control parameter set from the subset; determining, by the wireless communication device, the open-loop power control parameter set from the list of open-loop power control parameter sets according to the subset indicated by the OLI and the open-loop power control parameter set indicated by the SRI; and performing, by the wireless communication device, power control for a transmission scheduled by the DCI using the open-loop power control parameter set. receiving, by a wireless communication device from a base station, a list of open-loop power control parameter sets; receiving, by the wireless communication device from the base station a downlink control information, DCI, comprising an open-loop power control parameter set indicator, OLI, and a sounding reference signal, SRS, resource indicator, SRI, wherein, the OLI indicates a subset of the list of open-loop power control parameter sets, the SRI indicates an open-loop power control parameter set from the subset; determining, by the wireless communication device, the open-loop power control parameter set from the list of open-loop power control parameter sets according to the subset indicated by the OLI and the open-loop power control parameter set indicated by the SRI; and performing, by the wireless communication device, power control for a transmission scheduled by the DCI using the open-loop power control parameter set.
A flywheel device, comprising: a rotor for storing energy, the rotor comprising a primary rotational mass having a top surface and a bottom surface; a shaft coupled to the rotor, the primary rotational mass of the rotor configured to rotate around a central axis of the shaft; a housing enclosing the rotor, the housing including a top plate, a bottom plate, and side walls, the housing defining a hole aligned with the central axis of the shaft; a bearing housing substantially filling the hole aligned with the center axis of the rotor, the bearing housing including a bearing coupled to the shaft; a plurality of bottom posts configured to physically contact the bottom surface of the primary rotational mass of the rotor during transport of the flywheel assembly to prevent motion of the rotor during transport of the flywheel assembly, the plurality of posts fixedly attached to the housing; and a lifting mechanism, attached to the bearing housing, configured to lift the bearing housing during installation, from a transport position at which the rotor rests on the plurality of bottom posts, such that the rotor is lifted off the plurality of bottom posts enabling the primary rotational mass to rotate around the central axis. a rotor for storing energy, the rotor comprising a primary rotational mass having a top surface and a bottom surface; a shaft coupled to the rotor, the primary rotational mass of the rotor configured to rotate around a central axis of the shaft; a housing enclosing the rotor, the housing including a top plate, a bottom plate, and side walls, the housing defining a hole aligned with the central axis of the shaft; a bearing housing substantially filling the hole aligned with the center axis of the rotor, the bearing housing including a bearing coupled to the shaft; a plurality of bottom posts configured to physically contact the bottom surface of the primary rotational mass of the rotor during transport of the flywheel assembly to prevent motion of the rotor during transport of the flywheel assembly, the plurality of posts fixedly attached to the housing; and a lifting mechanism, attached to the bearing housing, configured to lift the bearing housing during installation, from a transport position at which the rotor rests on the plurality of bottom posts, such that the rotor is lifted off the plurality of bottom posts enabling the primary rotational mass to rotate around the central axis.
A therapeutic system comprising: - a therapy module to direct a therapeutic action to a target; - an imaging module to generate image information of a therapy region that includes the target, wherein the imaging module is formed by a magnetic resonance system able to perform MR elastography, in order to derive image information representing visco-elasticity properties of the tissue of the therapy region; - a motion analysis module to derive a motion vector field from said image information of the therapy region, the motion vector field representing displacement and/or orientation and deformation of the therapy region, wherein the motion analysis module is arranged to derive the motion vector field from representations of markers in the image of the therapy region, the motion analysis module is arranged to derive the motion vector field parameters local movement, orientation and/or deformation between the representations of markers by performing an interpolation weighted by the visco-elasticity properties; and - a control module to control the therapy module on the basis of the motion vector field. - a therapy module to direct a therapeutic action to a target; - an imaging module to generate image information of a therapy region that includes the target, wherein the imaging module is formed by a magnetic resonance system able to perform MR elastography, in order to derive image information representing visco-elasticity properties of the tissue of the therapy region; - a motion analysis module to derive a motion vector field from said image information of the therapy region, the motion vector field representing displacement and/or orientation and deformation of the therapy region, wherein the motion analysis module is arranged to derive the motion vector field from representations of markers in the image of the therapy region, the motion analysis module is arranged to derive the motion vector field parameters local movement, orientation and/or deformation between the representations of markers by performing an interpolation weighted by the visco-elasticity properties; and - a control module to control the therapy module on the basis of the motion vector field.
Device for suction of liquids and/or particles from body orifices, comprising a suction channel through which the liquid and/or the particles can be sucked, a vacuum pump for generating a negative pressure in the suction channel for suction of the liquid and/or the particles, wherein the suction channel comprises an opening for supplying additional air for adjusting the negative pressure, an additional air adjustment unit for adjusting the volume flow of the additional air supplied to the suction channel, and comprising a manually operable adjustment unit for adjusting the additional air adjustment unit, wherein at least in the range between a lower limit value of the negative pressure and an upper limit value of the negative pressure the adjustment of the adjustment unit in each case by a same preset adjustment path effects in each case the same change in the negative pressure, and characterised in that the opening has a triangular cross-section and in that the additional air adjustment unit has a helical cover plate for limiting the cross-section.
A refrigerator, comprising: a body; a storage compartment formed at an inside of the body; an inner door having an opening corresponding to the storage compartment, and a door frame forming the opening, the inner door rotatably coupled to the body; a plurality of door guards provided at the opening; and an outer door rotatably coupled to the body to open/close the opening, wherein the door frame comprises an inner panel, an outer panel, an insulation material disposed in between the inner panel and the outer panel, characterized in that said door frame further includes an installation member coupled to the inner panel, and a gasket installed at the installation member to seal in between the body and the inner panel; and in that the installation member comprises an installation groove at which the gasket is installed, and installation protrusions protruding toward an inner side of the installation groove to fix the gasket. a body; a storage compartment formed at an inside of the body; an inner door having an opening corresponding to the storage compartment, and a door frame forming the opening, the inner door rotatably coupled to the body; a plurality of door guards provided at the opening; and an outer door rotatably coupled to the body to open/close the opening, wherein the door frame comprises an inner panel, an outer panel, an insulation material disposed in between the inner panel and the outer panel, characterized in that said door frame further includes an installation member coupled to the inner panel, and a gasket installed at the installation member to seal in between the body and the inner panel; and in that the installation member comprises an installation groove at which the gasket is installed, and installation protrusions protruding toward an inner side of the installation groove to fix the gasket.
A coaxial loudspeaker comprising a bass unit and a high-pitched unit coaxially arranged, wherein the bass unit comprises a T-iron, a diaphragm and a voice coil connected to the diaphragm, the coaxial loudspeaker further comprises a cabin fixed on the T-iron, a lower portion of the cabin passes through the voice coil, a top end portion of the cabin is located above the diaphragm, the high-pitched unit is arranged on the top end portion of the cabin, the coaxial loudspeaker further comprises a dust-proof ring having an upper edge connected with the top end portion of the cabin and a lower edge connected with an upper portion of the voice coil, wherein the cabin is fixed on the T-iron through a connector which extends in a vertical direction, and an upper end portion of the connector is fixedly connected to the high-pitched unit, and the dust-proof ring surrounds the connector and the lower portion of the cabin, characterized in that, the cross section of the dust-proof ring in the vertical direction has a plurality of bent portions (51, 52) comprising a first bent portion and a second bent portion that are connected with each other, the first bent portion is a first arc that protrudes inward in a direction close to the connector, the second bent portion is a second arc that protrudes outward in a direction away from the connector. the coaxial loudspeaker further comprises a dust-proof ring having an upper edge connected with the top end portion of the cabin and a lower edge connected with an upper portion of the voice coil, wherein the cabin is fixed on the T-iron through a connector which extends in a vertical direction, and an upper end portion of the connector is fixedly connected to the high-pitched unit, and the dust-proof ring surrounds the connector and the lower portion of the cabin, characterized in that, the cross section of the dust-proof ring in the vertical direction has a plurality of bent portions (51, 52) comprising a first bent portion and a second bent portion that are connected with each other, the first bent portion is a first arc that protrudes inward in a direction close to the connector, the second bent portion is a second arc that protrudes outward in a direction away from the connector.
A system for analyzing athletic activity, comprising: an article of apparel including a sensor system (12, 12') comprising a plurality of sensors (16, 93, 116) engaged with the article of apparel and configured to sense a biomechanical parameter of a user while the user is in biomechanical movement; and an electronic device in communication with the sensor system (12, 12'), the electronic device configured to perform: receiving data generated by the sensor system (12, 12'); analyzing the data to determine whether a deviation from a desired biomechanical movement pattern exists in the biomechanical movement of the user, comprising comparing the data to a biomechanical movement template (601, 604) corresponding to the desired biomechanical movement pattern to determine whether a deviation from the biomechanical movement template (601, 604) exists; characterized by generating an indication to the user when the deviation from the desired biomechanical movement pattern is determined to exist, wherein the indication further includes a degree of deviation from the biomechanical movement template (601, 604) for each of the plurality of sensors (16, 93, 116). an article of apparel including a sensor system (12, 12') comprising a plurality of sensors (16, 93, 116) engaged with the article of apparel and configured to sense a biomechanical parameter of a user while the user is in biomechanical movement; and an electronic device in communication with the sensor system (12, 12'), the electronic device configured to perform: receiving data generated by the sensor system (12, 12'); analyzing the data to determine whether a deviation from a desired biomechanical movement pattern exists in the biomechanical movement of the user, comprising comparing the data to a biomechanical movement template (601, 604) corresponding to the desired biomechanical movement pattern to determine whether a deviation from the biomechanical movement template (601, 604) exists; receiving data generated by the sensor system (12, 12'); analyzing the data to determine whether a deviation from a desired biomechanical movement pattern exists in the biomechanical movement of the user, comprising comparing the data to a biomechanical movement template (601, 604) corresponding to the desired biomechanical movement pattern to determine whether a deviation from the biomechanical movement template (601, 604) exists;
An antenna apparatus, comprising: an array antenna comprising a sub-array; a power divider (501, 503); and a reconfigurable phase shifter circuit, wherein the reconfigurable phase shifter circuit is configured to: provide a first phase shift value based on a switch, in a first state, and provide a second phase shift value different from the first phase shift value based on the switch, in a second state, wherein the reconfigurable phase shifter circuit comprises: a first phase shifter circuit including a main path and at least two sub paths (921, 922) comprising a first sub path and a second sub path connected in parallel, wherein the first phase shifter circuit is configured to connect the first sub path to the main path in the first state, and to connect the second sub path to the main path in the second state. an array antenna comprising a sub-array; a power divider (501, 503); and a reconfigurable phase shifter circuit, wherein the reconfigurable phase shifter circuit is configured to: provide a first phase shift value based on a switch, in a first state, and provide a second phase shift value different from the first phase shift value based on the switch, in a second state, provide a first phase shift value based on a switch, in a first state, and provide a second phase shift value different from the first phase shift value based on the switch, in a second state, wherein the reconfigurable phase shifter circuit comprises: a first phase shifter circuit including a main path and at least two sub paths (921, 922) comprising a first sub path and a second sub path connected in parallel, wherein the first phase shifter circuit is configured to connect the first sub path to the main path in the first state, and to connect the second sub path to the main path in the second state.
A method for processing at a Device Management, DM, gateway a message received from a DM server, the method comprising: receiving a message for a target device associated with the DM gateway from a DM server (operations 1000, 1002, 1006); determining whether the DM gateway is bootstrapped to the DM server that sent the message (operation 1010); if it is determined that the DM gateway is not bootstrapped to the DM server that sent the message; determining whether the DM gateway should forward the message to the target device despite the DM gateway not being bootstrapped to the DM server that sent the message (operations 1014, 1016, 1018, 1020); and if it is determined that the DM gateway should forward the message to the target device despite the DM gateway not being bootstrapped to the DM server that sent the message, forwarding the message to the target device (operation 1012), wherein the determining that the DM gateway should forward the message to the target device despite the DM gateway not being bootstrapped to the DM server that sent the message comprises: determining that a LAN Device Inventory MO entry for the target device includes the DM server that sent the message in a list of bootstrapped servers for the target device (operations 1014, 1016). receiving a message for a target device associated with the DM gateway from a DM server (operations 1000, 1002, 1006); determining whether the DM gateway is bootstrapped to the DM server that sent the message (operation 1010); if it is determined that the DM gateway is not bootstrapped to the DM server that sent the message; determining whether the DM gateway should forward the message to the target device despite the DM gateway not being bootstrapped to the DM server that sent the message (operations 1014, 1016, 1018, 1020); and if it is determined that the DM gateway should forward the message to the target device despite the DM gateway not being bootstrapped to the DM server that sent the message, forwarding the message to the target device (operation 1012), wherein the determining that the DM gateway should forward the message to the target device despite the DM gateway not being bootstrapped to the DM server that sent the message comprises: determining that a LAN Device Inventory MO entry for the target device includes the DM server that sent the message in a list of bootstrapped servers for the target device (operations 1014, 1016).