mhurhangee/ep-ind-claims huggingface dataset:
An automatic tool storing mechanism comprising: a plurality of main magazines (10, 16, 40, 46, 50) for holding a number of pots with tools; transporting means for transporting the pots provided with tools one by one between the position close to the plurality of main magazines (10, 16, 40, 46, 50) and a waiting position close to a main spindle; and a tool exchanging arm adapted to take out a preused or unused tool from the pot waiting at the waiting position and attach it to the main spindle and remove a used tool from the main spindle and place it in the pot, a sub magazine for storing provisionally or tentatively a plurality of pots with tools, said sub magazine being located between the main magazines (10, 16, 40, 46, 50) and the waiting position close to or near the main spindle, wherein the pots with tools can be taken out or removed from the main magazines (10, 16, 40, 46, 50) and can be transported to the sub magazine, wherein the transporting means comprises a pair of first guide part and second guide part which are provided between the plurality of main magazines and the sub magazine, wherein the pots with tools stored in the plurality of main magazines (10, 16, 40, 46, 50) are transported along the first and second guide parts (301, 302) to the sub magazine; and a third guide part which is provided between the sub magazine and the waiting position close to the main spindle, wherein the pots with tools are transported one by one from the sub magazine to the waiting position along the third guide part. a plurality of main magazines (10, 16, 40, 46, 50) for holding a number of pots with tools; transporting means for transporting the pots provided with tools one by one between the position close to the plurality of main magazines (10, 16, 40, 46, 50) and a waiting position close to a main spindle; and a tool exchanging arm adapted to take out a preused or unused tool from the pot waiting at the waiting position and attach it to the main spindle and remove a used tool from the main spindle and place it in the pot, a sub magazine for storing provisionally or tentatively a plurality of pots with tools, said sub magazine being located between the main magazines (10, 16, 40, 46, 50) and the waiting position close to or near the main spindle, wherein the pots with tools can be taken out or removed from the main magazines (10, 16, 40, 46, 50) and can be transported to the sub magazine, wherein the transporting means comprises a pair of first guide part and second guide part which are provided between the plurality of main magazines and the sub magazine, wherein the pots with tools stored in the plurality of main magazines (10, 16, 40, 46, 50) are transported along the first and second guide parts (301, 302) to the sub magazine; and a third guide part which is provided between the sub magazine and the waiting position close to the main spindle, wherein the pots with tools are transported one by one from the sub magazine to the waiting position along the third guide part.
An assembly for light emission, consisting of - an LED module, consisting of an assembly of electronically connected LEDs and a carrier for the LEDs, wherein the assembly of the LEDs is selected in such a way that the thermal load of carrier caused by the operation of the LEDs is distributed substantially evenly over the carrier and - an optical device, wherein the optical device is a cell grid system, which consists of trough-shaped individual cells, in which the LEDs are arranged, wherein the assembly of the individual cells is homogeneous or has a uniform grid and the number of LEDs differs between the individual cells, wherein the density of the LEDs in an outer area or edge area of the carrier is greater than in the inner or central area. - an LED module, consisting of an assembly of electronically connected LEDs and a carrier for the LEDs, - an optical device,
A method for wireless communications, comprising: generating a frame comprising a preamble, a first header, and a second header, wherein the preamble and the first header are configured to be decoded by a first device operating according to a first protocol, the second header not being configured to be decoded by the first device (106, 108), and wherein the preamble, the first header, and the second header are configured to be decoded by a second device operating according to a second protocol, wherein the first protocol is different from the second protocol, wherein the first protocol includes a first set of available modulation coding schemes, MCS and the second protocol includes a second set of available modulation coding schemes, the first set of MCS being different than the second set of MCS, wherein the first header includes a first set of header data and the second header includes a second set of header data, wherein the first set of header data and the second set of header data are modulated and coded using at least one of the MCS in the first set, wherein the frame comprises a first payload data appended to the second header, wherein the first payload data of the frame is modulated and coded using the at least one of the MCS in the first set, wherein the frame further comprises a second payload data, wherein the second payload data of the frame is modulated and coded using one of the MCS in the second set of MCS; and outputting the frame for transmission. generating a frame comprising a preamble, a first header, and a second header, wherein the preamble and the first header are configured to be decoded by a first device operating according to a first protocol, the second header not being configured to be decoded by the first device (106, 108), and wherein the preamble, the first header, and the second header are configured to be decoded by a second device operating according to a second protocol, wherein the first protocol is different from the second protocol, wherein the first protocol includes a first set of available modulation coding schemes, MCS and the second protocol includes a second set of available modulation coding schemes, the first set of MCS being different than the second set of MCS, wherein the first header includes a first set of header data and the second header includes a second set of header data, wherein the first set of header data and the second set of header data are modulated and coded using at least one of the MCS in the first set, wherein the frame comprises a first payload data appended to the second header, wherein the first payload data of the frame is modulated and coded using the at least one of the MCS in the first set, wherein the frame further comprises a second payload data, wherein the second payload data of the frame is modulated and coded using one of the MCS in the second set of MCS; and outputting the frame for transmission.
Orbital welding device, at least comprising a chassis for coupling the welding device to a guide band, the chassis having at least a first group of wheels and a second group of wheels, wherein the first group of wheels and the second group of wheels are at least orthogonally to the transport direction spaced from each other, and wherein the first wheel group and the second wheel group can be arranged orthogonally to the transport direction at least in two different relative positions to each other, a drive device for moving the welding device relative to the guide band, wherein the drive device having at least one motor and a force transmission element that can be brought into contact with the guide band, a motor decoupling device for repositioning of at least one element, in particular the force transmission element, of the drive device, wherein by the motor decoupling device in at least one relative position between the first wheel group and the second wheel group in an operating state the at least one element of the drive device can be repositioned in such a way that a movement of the welding device along the guide band can be decoupled from an operation of the drive device, in particular the force transmission element is spaced from the guide band, characterized in that the longitudinal direction of the welding device extends in the transport direction and the width direction of the welding device extends orthogonally to the longitudinal direction of the guide band, wherein the drive device being mounted so as to be linearly displaceable in the width direction F and a coupling and uncoupling device for coupling the chassis and the drive device to the guide band and for uncoupling the chassis and the drive device from the guide band is provided, wherein the coupling and decoupling device has a deflection arrangement for the simultaneous repositioning of at least one element of the drive device and at least one wheel of at least one group of wheels of the chassis.
A ventilated jacket comprising: a body portion having a front side and a rear side; a sleeve portion extending from the body portion; and a ventilation system including a plurality of vent openings configured to allow airflow into and out of the ventilated jacket, and an underarm vent having a first end and a second end, the underarm vent extends across a seam between the body portion and the sleeve portion, characterized in that the ventilated jacket further comprises a wing that follows a path established by the underarm vent and is positioned at a rear side of the underarm vent, the wing includes a first end adjacent the first end of the underarm vent and a second end adjacent the second end of the underarm vent, the wing extending outward from the underarm vent to channel oncoming air into the underarm vent when the sleeve portion is held in an extended orientation away from the body portion. a body portion having a front side and a rear side; a sleeve portion extending from the body portion; and a ventilation system including a plurality of vent openings configured to allow airflow into and out of the ventilated jacket, and an underarm vent having a first end and a second end, the underarm vent extends across a seam between the body portion and the sleeve portion, a plurality of vent openings configured to allow airflow into and out of the ventilated jacket, and an underarm vent having a first end and a second end, the underarm vent extends across a seam between the body portion and the sleeve portion, characterized in that the ventilated jacket further comprises a wing that follows a path established by the underarm vent and is positioned at a rear side of the underarm vent, the wing includes a first end adjacent the first end of the underarm vent and a second end adjacent the second end of the underarm vent, the wing extending outward from the underarm vent to channel oncoming air into the underarm vent when the sleeve portion is held in an extended orientation away from the body portion.
An optical connector comprising: a housing in which a counterpart optical connector connected to a pair of optical fibers having a first optical fiber and a second optical fiber is fitted; a light emitting side lens portion accommodated in the housing, and in which a first end surface of the first optical fiber in the counterpart optical connector is disposed on one end side; a light receiving side lens portion accommodated in the housing, and in which a second end surface of the second optical fiber in the counterpart optical connector is disposed on one end side; a light emitting element disposed on the other end side of the light emitting side lens portion; and a light receiving element disposed on the other end side of the light receiving side lens portion, wherein in a state that the counterpart optical connector is fitted to the housing, a distance between the light receiving side lens portion and the second end surface of the second optical fiber is smaller than a distance between the light emitting side lens portion and the first end surface of the first optical fiber, characterized in that the light emitting side lens portion and the light receiving side lens portion are integrally molded on a substrate portion to form a lens body, which is integrally molded of a transparent resin having light guiding properties, and are assembled to the housing, and that a second lens thickness of the light receiving side lens portion is larger than a first lens thickness of the light emitting side lens portion. a housing in which a counterpart optical connector connected to a pair of optical fibers having a first optical fiber and a second optical fiber is fitted; a light emitting side lens portion accommodated in the housing, and in which a first end surface of the first optical fiber in the counterpart optical connector is disposed on one end side; a light receiving side lens portion accommodated in the housing, and in which a second end surface of the second optical fiber in the counterpart optical connector is disposed on one end side; a light emitting element disposed on the other end side of the light emitting side lens portion; and a light receiving element disposed on the other end side of the light receiving side lens portion, wherein in a state that the counterpart optical connector is fitted to the housing, a distance between the light receiving side lens portion and the second end surface of the second optical fiber is smaller than a distance between the light emitting side lens portion and the first end surface of the first optical fiber, characterized in that the light emitting side lens portion and the light receiving side lens portion are integrally molded on a substrate portion to form a lens body, which is integrally molded of a transparent resin having light guiding properties, and are assembled to the housing, and that a second lens thickness of the light receiving side lens portion is larger than a first lens thickness of the light emitting side lens portion.
A method of manufacturing a wafer in which a heterogeneous material compound that includes a donor substrate, a receiver substrate and a pre-determined splitting area formed by implanting ions or ion clusters in the donor substrate is split at the pre-determined splitting area of the compound, wherein the compound is subject to a thermal treatment for the splitting of the compound, characterized in that the receiver substrate has a different thermal expansion coefficient than the donor substrate and the thermal treatment comprises at least two steps: annealing (140, 141) the compound for thermal pre-fragilising of the pre-determined splitting area, which is stopped before a splitting of the compound; and an irradiation (150, 151, 153; 160, 161, 162, 163, 164) of the compound with photons following the annealing step to obtain the splitting of the compound at the pre-determined splitting area.
An implantable medical device comprising an integrated circuit including: a first substrate comprising a first front side and a second substrate comprising a second front side, the first and second substrates being bonded along their first and second front sides; a single reflowed interconnect connecting between the first and second substrate, the interconnect being formed of conductive material; and wherein the conductive material is gold-tin (AuSn); and characterised in that: each of the first and second front sides comprises a recess, and that the single reflowed interconnect is formed inside the recesses of the first and second front sides of the first and second substrates (400,420). a first substrate comprising a first front side and a second substrate comprising a second front side, the first and second substrates being bonded along their first and second front sides; a single reflowed interconnect connecting between the first and second substrate, the interconnect being formed of conductive material; and wherein the conductive material is gold-tin (AuSn); and characterised in that: each of the first and second front sides comprises a recess, and that the single reflowed interconnect is formed inside the recesses of the first and second front sides of the first and second substrates (400,420).
Arrangement for the rotary connection of a dynamometer connection component of a dynamometer of a test stand with a test object connection component of a test object, comprising: - at least one shaft extending along the axis of rotation of the rotary connection, - one dynamometer coupling device for the rotary connection of the shaft with the dynamometer connection component, - a test object coupling device for the rotary connection of the shaft with the test object connection component, characterized in - that the test object coupling device comprises at least one test object adapter which is adapted to be connected with the test object connection component of a test object and a shaft adapter which is adapted to be connected or is connected with the shaft, - that the test object adapter and the shaft adapter comprise form-fit elements for the detachable and form-fitting rotary connection of the test object adapter with the shaft adapter, - that an axial connection device is provided for the axial connection of the test object adapter to the shaft adapter, - that the axial connection device is designed similar to a bayonet lock, - that a clamping web is adapted to be arranged between the clamping bodies of the axial connection device by a movement sequence of an axial movement and a rotary movement of the axial connection device, - and that the clamping bodies act as an axial lock against an axial separation of the test object adapter from the shaft adapter and as an anti-twist device for the bayonet-lock-like axial connection device. - at least one shaft extending along the axis of rotation of the rotary connection, - one dynamometer coupling device for the rotary connection of the shaft with the dynamometer connection component, - a test object coupling device for the rotary connection of the shaft with the test object connection component, - that the test object coupling device comprises at least one test object adapter which is adapted to be connected with the test object connection component of a test object and a shaft adapter which is adapted to be connected or is connected with the shaft, - that the test object adapter and the shaft adapter comprise form-fit elements for the detachable and form-fitting rotary connection of the test object adapter with the shaft adapter, - that an axial connection device is provided for the axial connection of the test object adapter to the shaft adapter, - that the axial connection device is designed similar to a bayonet lock, - that a clamping web is adapted to be arranged between the clamping bodies of the axial connection device by a movement sequence of an axial movement and a rotary movement of the axial connection device, - and that the clamping bodies act as an axial lock against an axial separation of the test object adapter from the shaft adapter and as an anti-twist device for the bayonet-lock-like axial connection device.
A method of generating drive signals for driving an SMA apparatus, wherein the SMA apparatus comprises two SMA actuator assemblies (2a, 2b) each comprising a respective set of one or more SMA wires (30a, 30b), the method comprising the steps of: outputting drive signals for applying to the SMA wires (30a, 30b) of the sets of SMA wires (30a, 30b) so as to independently drive the SMA actuator assemblies (2a, 2b); and outputting a measurement pulse for measuring an electrical characteristic of an SMA wire (30a, 30b), characterised by suppressing or delaying the drive signals for applying to both sets of SMA wires (30a, 30b) for the duration of the measurement pulse, such that the measurement pulse is applied in the absence of any drive signal. outputting drive signals for applying to the SMA wires (30a, 30b) of the sets of SMA wires (30a, 30b) so as to independently drive the SMA actuator assemblies (2a, 2b); and outputting a measurement pulse for measuring an electrical characteristic of an SMA wire (30a, 30b), characterised by suppressing or delaying the drive signals for applying to both sets of SMA wires (30a, 30b) for the duration of the measurement pulse, such that the measurement pulse is applied in the absence of any drive signal.
Method for operating a multi-axle powertrain for a motor vehicle, wherein a first axle is in permanent operational connection, and a second axle via a clutch (13, 14) is at least temporarily in operational connection with a drive apparatus, characterised in that when the second axle is decoupled from the drive apparatus and the start clutch is opened, an expected wheel force is predictably determined, wherein when determining the wheel force, a torque caused by a mass moment of inertia of the drive apparatus is taken into consideration, and wherein the second axle is coupled with the drive apparatus when the wheel force to be expected exceeds a maximum wheel force.
Sensor system for measuring, transmitting, processing and displaying a brain parameter - with at least one implantable brain parameter sensor with a wireless transmission unit for measuring the brain parameter, - with at least one receiving unit with an antenna, which is in wireless signal connection with the transmission unit, - with at least one data read module, which is in signal connection with the antenna by means of a signal connection, - with at least one data processing and display device, which is in signal connection with the data read module, characterised by a head cap or a head hood, on which the receiving unit is fixed to predetermine a relative positioning relative to the transmission unit, wherein the head cap or the head hood has a plurality of individual bands or individual tubes, which predetermine a grid network, wherein the receiving unit is fixable on crossing points of the grid network. - with at least one implantable brain parameter sensor with a wireless transmission unit for measuring the brain parameter, - with at least one receiving unit with an antenna, which is in wireless signal connection with the transmission unit, - with at least one data read module, which is in signal connection with the antenna by means of a signal connection, - with at least one data processing and display device, which is in signal connection with the data read module, characterised by a head cap or a head hood, on which the receiving unit is fixed to predetermine a relative positioning relative to the transmission unit, wherein the head cap or the head hood has a plurality of individual bands or individual tubes, which predetermine a grid network, wherein the receiving unit is fixable on crossing points of the grid network.