mhurhangee/ep-ind-claims huggingface dataset:
Transport unit for a transport device in the form of a planar motor comprising at least one transport segment (TSi), which forms a transport plane, wherein drive magnets are provided on the transport unit to interact magnetically with drive coils or movable permanent magnets of the transport segment (TSi) or wherein drive coils or movable permanent magnets are provided on the transport unit to interact magnetically with drive magnets of the transport segment (TSi), to move the transport unit at least two-dimensionally in the transport plane, characterized in that at least one coupling device is provided on the transport unit, which device is designed to releasably couple the transport unit to a coupling unit to form an assembly by way of a relative movement between the transport unit and the coupling unit in the transport plane, wherein the coupling device is designed to interact with the coupling unit in the coupled assembly in such a way, that a relative movement between the transport unit and the coupling unit is limited in at least one degree of freedom of movement, wherein the coupling unit either is a further transport unit and the at least two transport units (3A, 3B) can be coupled by the coupling devices to form a transport unit assembly, in which the transport units (3A, 3B) can be jointly moved in the transport plane, or that the coupling unit is an object carrier for receiving an object and the transport unit can be coupled to the object carrier to form an object carrier assembly, in which the object carrier can be moved in the transport plane by the transport unit.
A surface-enhanced Raman scattering unit comprising: a surface-enhanced Raman scattering element having a substrate and an optical function part formed on the substrate, the optical function part for generating surface-enhanced Raman scattering; a transportation board supporting the surface-enhanced Raman scattering element during transportation, the surface-enhanced Raman scattering element being removed from the transportation board upon measurement; and a holding part having a pinching part pinching the surface-enhanced Raman scattering element in cooperation with the transportation board, and detachably holding the surface-enhanced Raman scattering element in the transportation board, wherein the holding part includes a plurality of leg parts extending from the pinching part toward a rear face of transportation board, a front face of the transportation board has a plurality of fitting holes corresponding to the plurality of leg parts, the holding part is formed separately from the transportation board, characterized in that: the holding part is mechanically secured to the transportation board due to the plurality of leg parts being respectively fitted into the corresponding plurality of fitting holes with the pinching part in contact with the surface-enhanced Raman scattering element, and the leg parts and the pinching part of the holding part are integrally formed. a surface-enhanced Raman scattering element having a substrate and an optical function part formed on the substrate, the optical function part for generating surface-enhanced Raman scattering; a transportation board supporting the surface-enhanced Raman scattering element during transportation, the surface-enhanced Raman scattering element being removed from the transportation board upon measurement; and a holding part having a pinching part pinching the surface-enhanced Raman scattering element in cooperation with the transportation board, and detachably holding the surface-enhanced Raman scattering element in the transportation board, wherein the holding part includes a plurality of leg parts extending from the pinching part toward a rear face of transportation board, a front face of the transportation board has a plurality of fitting holes corresponding to the plurality of leg parts, the holding part is formed separately from the transportation board, characterized in that: the holding part is mechanically secured to the transportation board due to the plurality of leg parts being respectively fitted into the corresponding plurality of fitting holes with the pinching part in contact with the surface-enhanced Raman scattering element, and the leg parts and the pinching part of the holding part are integrally formed. the holding part is mechanically secured to the transportation board due to the plurality of leg parts being respectively fitted into the corresponding plurality of fitting holes with the pinching part in contact with the surface-enhanced Raman scattering element, and the leg parts and the pinching part of the holding part are integrally formed.
An integrated circuit, which, in operation, is adapted to control a process of a master mobile terminal for grouping with a remote mobile terminal, wherein the master mobile terminal and the remote mobile terminal are connected to a radio base station in a mobile communication network, the master mobile terminal being capable to serve as a relay respectively for one or more remote mobile terminals so as to relay communication between the one or more remote mobile terminals and the radio base station, and wherein the process comprises: discovering the remote mobile terminal and an identifier of the remote mobile terminal, transmitting a group request message to the radio base station, the group request message comprising the remote mobile terminal identifier and a request to group the remote mobile terminal with the master mobile terminal, and receiving a group request confirm message from the radio base station, confirming that the remote mobile terminal and the master mobile terminal are grouped together. discovering the remote mobile terminal and an identifier of the remote mobile terminal, transmitting a group request message to the radio base station, the group request message comprising the remote mobile terminal identifier and a request to group the remote mobile terminal with the master mobile terminal, and receiving a group request confirm message from the radio base station, confirming that the remote mobile terminal and the master mobile terminal are grouped together.
Full automatic coffee machine comprising a coffee extraction unit, said coffee extraction unit comprising: - a brewing chamber for receiving roasted and ground coffee powder, said chamber comprising an upper rim, a bottom wall and a water inlet, - an upper piston,. said upper piston being configured to be movable through the upper rim of the brewing chamber and inside the brewing chamber further to the relative movement of the brewing chamber and the upper piston, and. said upper piston comprising a liquid outlet duct, - a lower piston movable inside said brewing chamber between:. a lowest position wherein the lower piston lies on the bottom wall of the brewing chamber, and. a highest position wherein the lower piston is at the upper rim of the brewing chamber, - wherein the lower piston comprises a piston rod, said piston rod extending through the bottom wall of the brewing chamber, and characterized in that the piston rod comprises an internal channel extending from a channel inlet at the lateral wall surface of the rod to a channel outlet at the bottom wall surface of the rod, and wherein the channel inlet is designed and positioned on the lateral wall surface of the rod so that said channel inlet overlaps the bottom wall of the brewing chamber only when the lower piston is in the higher position. - a brewing chamber for receiving roasted and ground coffee powder, said chamber comprising an upper rim, a bottom wall and a water inlet, - an upper piston,. said upper piston being configured to be movable through the upper rim of the brewing chamber and inside the brewing chamber further to the relative movement of the brewing chamber and the upper piston, and. said upper piston comprising a liquid outlet duct,. said upper piston being configured to be movable through the upper rim of the brewing chamber and inside the brewing chamber further to the relative movement of the brewing chamber and the upper piston, and. said upper piston comprising a liquid outlet duct, - a lower piston movable inside said brewing chamber between:. a lowest position wherein the lower piston lies on the bottom wall of the brewing chamber, and. a highest position wherein the lower piston is at the upper rim of the brewing chamber,. a lowest position wherein the lower piston lies on the bottom wall of the brewing chamber, and. a highest position wherein the lower piston is at the upper rim of the brewing chamber, - wherein the lower piston comprises a piston rod, said piston rod extending through the bottom wall of the brewing chamber, and characterized in that the piston rod comprises an internal channel extending from a channel inlet at the lateral wall surface of the rod to a channel outlet at the bottom wall surface of the rod, and wherein the channel inlet is designed and positioned on the lateral wall surface of the rod so that said channel inlet overlaps the bottom wall of the brewing chamber only when the lower piston is in the higher position.
A diverting apparatus (101, 201, 301, 401, 501, 527, 554, 701, 801) comprising: a substrate (130, 540) comprising an inner surface (102, 302, 522, 552, 702, 902) and an outer surface (103, 303, 503, 523, 553, 703, 803, 903), the inner surface comprising a lower section (119, 319, 419, 519, 523, 529, 719, 819, 919) and an upper section (118, 318, 418, 526, 528, 706, 718, 806, 818, 906, 918), the lower section comprising an adhesive (111, 311, 411, 511, 521, 551, 711, 811, 911), characterized in that the upper section is adhesive-free and the adhesive is useable for releasably attaching the diverting apparatus to the wearer in a region above the eye and below the eyebrow of the wearer, the lower section attachable to the upper orbit of the eye of a wearer and shaped to fit the contour of the upper orbit of the eye when attached thereto, the upper section shaped to protrude from the eyebrow region of the wearer when the lower section is attached to the upper orbit of the eye to create a channel that is capable of diverting sweat, liquid, moisture, or the like away from the eye. a substrate (130, 540) comprising an inner surface (102, 302, 522, 552, 702, 902) and an outer surface (103, 303, 503, 523, 553, 703, 803, 903), the inner surface comprising a lower section (119, 319, 419, 519, 523, 529, 719, 819, 919) and an upper section (118, 318, 418, 526, 528, 706, 718, 806, 818, 906, 918), the lower section comprising an adhesive (111, 311, 411, 511, 521, 551, 711, 811, 911),
A drug solution containing pack with a reduced dissolved oxygen content, comprising a drug solution container formed of a plastic material having an oxygen permeability of not lower than 200 cm 3 /m 2 ·24h·atm at a temperature of 25°C at a humidity of 60% RH within 12 hours after a steam sterilization process or a hot water sterilization process and having a steady-state oxygen permeability of not higher than 100 cm 3 /m 2 ·24h·atm at a temperature of 25°C at a humidity of 60 % RH; and a drug solution contained and sealed in the drug solution container; wherein the drug solution contained and sealed in the drug solution container has been subjected to the steam sterilization process or the hot water sterilization process, and to a deoxidization process for reducing a dissolved oxygen concentration of the drug solution to not higher than 2 ppm when the oxygen permeability of the plastic material reaches the steady-state level after the steam sterilization process or the hot water sterilization process; and wherein the drug solution container includes a plurality of container portions, and isolated from each other by a removable partition or, wherein an amino acid containing solution is contained in one of the container portions or, and a saccharide solution is contained in another one of the container portions or.
A fiber amplifier system comprising: an optical source providing an optical seed beam; an auxiliary electro-optical modulator, EOM, configured to frequency modulate the seed beam to provide frequency modulation broadening; a single combined frequency modulation, FM, and amplitude modulation, AM, EOM configured to be responsive to the seed beam, a first RF drive signal and a second RF drive signal, said FM and AM EOM configured to frequency modulate the seed beam by providing a time dependent change in the phase of the seed beam using the first drive signal so as to broaden its spectral linewidth and amplitude modulate the seed beam using the second drive signal so as to vary the power of the seed beam in time and provide an amplitude modulated seed beam that is synchronized with the frequency modulated seed beam; and a non-linear fiber amplifier configured to receive the AM and FM modulated seed beam and configured to amplify the seed beam, wherein the amplitude modulated seed beam is configured to cause self-phase modulation in the fiber amplifier that phase modulates the seed beam as it is being amplified by the fiber amplifier that acts to cancel the spectral linewidth broadening caused by the frequency modulation of the combined FM and AM EOM, wherein peaks of the amplitude modulation of the seed beam caused by the second drive signal align with valleys of the phase modulation of the seed beam caused by the first drive signal. an optical source providing an optical seed beam; an auxiliary electro-optical modulator, EOM, configured to frequency modulate the seed beam to provide frequency modulation broadening; a single combined frequency modulation, FM, and amplitude modulation, AM, EOM configured to be responsive to the seed beam, a first RF drive signal and a second RF drive signal, said FM and AM EOM configured to frequency modulate the seed beam by providing a time dependent change in the phase of the seed beam using the first drive signal so as to broaden its spectral linewidth and amplitude modulate the seed beam using the second drive signal so as to vary the power of the seed beam in time and provide an amplitude modulated seed beam that is synchronized with the frequency modulated seed beam; and a non-linear fiber amplifier configured to receive the AM and FM modulated seed beam and configured to amplify the seed beam, wherein the amplitude modulated seed beam is configured to cause self-phase modulation in the fiber amplifier that phase modulates the seed beam as it is being amplified by the fiber amplifier that acts to cancel the spectral linewidth broadening caused by the frequency modulation of the combined FM and AM EOM, wherein peaks of the amplitude modulation of the seed beam caused by the second drive signal align with valleys of the phase modulation of the seed beam caused by the first drive signal.
Watch comprising a middle configured to receive a horological movement as well as a shock-proof device configured to allow the horological movement to move along at least three degrees of freedom; the shock-proof device further comprising a crown configured to move between a first position wherein the horological movement is free along at least three degrees of freedom, and a second position wherein the horological movement is rigidly connected to the crown, the crown comprising at least: - a driven organ configured to be driven and to be connected to the horological movement; and, - a driving organ configured to be distant from the at least one driven organ when the crown is in the first position and to be in contact with the at least one driven organ when the crown is in the second position; the middle further comprising a damping element configured to damp the shocks suffered by the horological movement. - a driven organ configured to be driven and to be connected to the horological movement; and, - a driving organ configured to be distant from the at least one driven organ when the crown is in the first position and to be in contact with the at least one driven organ when the crown is in the second position;
A gas turbine engine nozzle comprising: a structure; a flap movable relative to the structure; a seal assembly (22; 222) supported by one of the structure and the flap and including a seal (26; 126) hinged about an axis and having a sealing profile engaging a seal land of the other of the structure and the flap; and a biasing member (36; 236) configured to urge the hinged seal toward the seal land, characterised in that the structure is a static hood, the seal assembly (22; 222) includes a seal holder secured to the structure by one or more fastening elements (28,29), the seal is pivotally secured to the seal holder by a pin providing the axis, and the biasing member is supported by the pin and arranged laterally between the seal holder and the seal. a structure; a flap movable relative to the structure; a seal assembly (22; 222) supported by one of the structure and the flap and including a seal (26; 126) hinged about an axis and having a sealing profile engaging a seal land of the other of the structure and the flap; and a biasing member (36; 236) configured to urge the hinged seal toward the seal land, characterised in that the structure is a static hood, the seal assembly (22; 222) includes a seal holder secured to the structure by one or more fastening elements (28,29), the seal is pivotally secured to the seal holder by a pin providing the axis, and the biasing member is supported by the pin and arranged laterally between the seal holder and the seal.
A guiding apparatus for guiding, in a subject, a capsule medical device introduced into the subject and including a permanent magnet by applying a magnetic field to the capsule medical device, the guiding apparatus comprising: a magnetic field generation unit; a translation mechanism that translates the magnetic field generation unit relative to the subject; a rotation mechanism that rotates the magnetic field generation unit relative to the subject; an input unit that receives first information about an operation for changing a position of the capsule medical device and second information about an operation for changing a posture of the capsule medical device; and a control unit that controls the translation mechanism and the rotation mechanism in accordance with the first information and the second information such that the magnetic field generation unit is translated and rotated relative to the subject, wherein, when the input unit receives the second information, the control unit corrects a change in the position of the capsule medical device caused by the rotation of the magnetic field generation unit relative to the subject by translating the magnetic field generation unit relative to the subject. a magnetic field generation unit; a translation mechanism that translates the magnetic field generation unit relative to the subject; a rotation mechanism that rotates the magnetic field generation unit relative to the subject; an input unit that receives first information about an operation for changing a position of the capsule medical device and second information about an operation for changing a posture of the capsule medical device; and a control unit that controls the translation mechanism and the rotation mechanism in accordance with the first information and the second information such that the magnetic field generation unit is translated and rotated relative to the subject,
A sensor comprising a sensor body, wherein a deflectable component is mounted to the sensor body, and wherein the parameter to be sensed is pressure, and wherein the sensor body and the deflectable component define at least one pressure sensing chamber, and characterized by the deflectable component being responsive to the parameter to be sensed and formed of a titanium-based superelastic alloy having a Young's modulus of less than about 80 GPa and a tensile strength of greater than about 1,000 MPa.
A method of tuning a vibratory gyroscope, the gyroscope comprising: an axisymmetric disc resonator, a frame, the resonator fixed to the frame through at least three separate anchors, a plurality of electrodes, each electrode positioned on the frame or the resonator, wherein the plurality of electrodes comprises at least one drive electrode through which a drive signal is input to excite a first mode of vibration of the resonator, at least one first sense electrode configured to sense the first mode of vibration of the resonator, at least one second sense electrode configured to sense a second mode of vibration of the resonator, orthogonal to the first mode, and at least first and second tuning electrodes to which DC biasing voltages may be applied, the method comprising the steps of: a) applying an AC drive signal to the drive electrode, the drive signal comprising a plurality of frequencies; b) sensing the response of the resonator to the drive signal at the first and second sense electrodes; c) determining a frequency of maximum response for the first mode of vibration, and determining a frequency of maximum response for the second mode of vibration; d) deriving a comparison result from a comparison of the frequency of maximum response for the first mode of vibration with the frequency of maximum response for the second mode of vibration; and e) applying a biasing voltage to a set of one or more of the tuning electrodes dependent on the comparison result, and wherein the method comprises repeating steps a) to e) using a set of one or more first mode tuning electrodes in step (e) until either the frequency of maximum response for the first mode of vibration is determined to be equal to the frequency of maximum response for the second mode of vibration, or a difference between the frequency of maximum response for the first mode of vibration and the frequency of maximum response for the second mode of vibration is reduced to a minimum non-zero value, and if the difference between the frequency of maximum response for the first mode of vibration and the frequency of maximum response for the second mode of vibration is reduced to a minimum non-zero value, subsequently repeating steps (a) to (e) using a set of one or more second tuning electrodes in step (e) until the frequency of maximum response for the first mode of vibration is determined to be equal to the frequency of maximum response for the second mode of vibration in step (d). a) applying an AC drive signal to the drive electrode, the drive signal comprising a plurality of frequencies; b) sensing the response of the resonator to the drive signal at the first and second sense electrodes; c) determining a frequency of maximum response for the first mode of vibration, and determining a frequency of maximum response for the second mode of vibration; d) deriving a comparison result from a comparison of the frequency of maximum response for the first mode of vibration with the frequency of maximum response for the second mode of vibration; and e) applying a biasing voltage to a set of one or more of the tuning electrodes dependent on the comparison result, and