mhurhangee/ep-ind-claims huggingface dataset:
Arrangement for regulation of a plant I for the membrane permeation treatment of a feed gas stream comprising at least methane and carbon dioxide, said arrangement comprising: - at least one means A for measurement of the gross calorific value of the feed gas stream, - at least one means B for comparison of the gross calorific value with a setpoint value E, - at least one means C for production of a control signal as a function of the comparison of the gross calorific value with the setpoint value E, and - at least one means D for transmission of this control signal, with the means D capable of transmitting the control signal to a means for regulation of said plant I or to a setpoint for concentration of methane or of carbon dioxide at the outlet of the plant in the form of a second setpoint value E'. - at least one means A for measurement of the gross calorific value of the feed gas stream, - at least one means B for comparison of the gross calorific value with a setpoint value E, - at least one means C for production of a control signal as a function of the comparison of the gross calorific value with the setpoint value E, and - at least one means D for transmission of this control signal,
A surface acoustic wave sensor comprising: - a substrate having a surface suitable for propagation of surface acoustic waves in a first direction and - a surface acoustic wave transducer having a pass-band and being arranged on said surface, said surface acoustic wave transducer being responsive to an interrogation signal for generating surface acoustic waves propagating in said first direction and within an acoustic channel having a width in a direction perpendicular to the first direction on a free surface of said surface, i.e. a surface not being "disturbed" by any barriers like gratings, metallization or the like, wherein - at least one Fabry-Perot-type resonator for surface acoustic waves is arranged at a distance D 0 = V SAW ⋅ T init 2 from said transducer providing for a selected initial delay T init, with V SAW being the velocity of surface acoustic waves propagation in said first direction, - wherein said Fabry-Perot-type resonator contains a first reflector facing the acoustic wave transducer, a second reflector and a resonator cavity (15, 25) between said first and second reflectors, - wherein said Fabry-Perot-type resonator has an Eigenmode resonance frequency F R within the pass-band of said transducer, and - wherein said Fabry-Perot-type resonator at least partly overlaps with said acoustic channel. - a substrate having a surface suitable for propagation of surface acoustic waves in a first direction and - a surface acoustic wave transducer having a pass-band and being arranged on said surface, said surface acoustic wave transducer being responsive to an interrogation signal for generating surface acoustic waves propagating in said first direction and within an acoustic channel having a width in a direction perpendicular to the first direction on a free surface of said surface, i.e. a surface not being "disturbed" by any barriers like gratings, metallization or the like, wherein - at least one Fabry-Perot-type resonator for surface acoustic waves is arranged at a distance D 0 = V SAW ⋅ T init 2 from said transducer providing for a selected initial delay T init, with V SAW being the velocity of surface acoustic waves propagation in said first direction, - wherein said Fabry-Perot-type resonator contains a first reflector facing the acoustic wave transducer, a second reflector and a resonator cavity (15, 25) between said first and second reflectors, - wherein said Fabry-Perot-type resonator has an Eigenmode resonance frequency F R within the pass-band of said transducer, and - wherein said Fabry-Perot-type resonator at least partly overlaps with said acoustic channel.
An optical radiation device package, comprising: a base structure having arranged thereon the optical radiation device (10; 10-1, 10-2), an optically transparent lid element bonded to the base structure defining a cavity between the base structure and the lid element, wherein the optical radiation device (10; 10-1, 10-2) is arranged in the cavity, and a bond structure in a bonding region between the base structure and the lid element, wherein the bond structure is arranged to provide an adhesive bond between the base structure and the lid element, characterized in that the bond structure comprises a diffusion layer (20-1, 20-2) having a gas diffusive material or gas diffusive structure for providing a gas diffusion path between the cavity and the surrounding atmosphere. a base structure having arranged thereon the optical radiation device (10; 10-1, 10-2), an optically transparent lid element bonded to the base structure defining a cavity between the base structure and the lid element, wherein the optical radiation device (10; 10-1, 10-2) is arranged in the cavity, and a bond structure in a bonding region between the base structure and the lid element, wherein the bond structure is arranged to provide an adhesive bond between the base structure and the lid element, characterized in that the bond structure comprises a diffusion layer (20-1, 20-2) having a gas diffusive material or gas diffusive structure for providing a gas diffusion path between the cavity and the surrounding atmosphere.
A method for generating ultrasound transmission waves comprising the steps of: a) providing an array of electroacoustic transducer elements each one being connected to an electric excitation signal generator by a dedicated feeding channel; b) feeding at least a part of the electroacoustic transducer elements each with a respective pulsed electric excitation signal having a predetermined frequency, a predetermined amplitude, a predetermined length or duration and a predetermined phase or a predefined delay with respect to the pulsed electric excitation signals fed to the adjacent transducer elements, the said pulsed electric excitation signals comprising a sequence of pulses; c) modulating each or at least part of the pulsed electric excitation signals by feeding to the said transducer elements only a predetermined portion of the said pulsed electric excitation signals, characterized in that the step c) is carried out by cutting the duration of the said pulsed electric excitation signals according to at least one or more than one predetermined time intervals corresponding to a fraction of the said pulsed electric excitation signals. a) providing an array of electroacoustic transducer elements each one being connected to an electric excitation signal generator by a dedicated feeding channel; b) feeding at least a part of the electroacoustic transducer elements each with a respective pulsed electric excitation signal having a predetermined frequency, a predetermined amplitude, a predetermined length or duration and a predetermined phase or a predefined delay with respect to the pulsed electric excitation signals fed to the adjacent transducer elements, the said pulsed electric excitation signals comprising a sequence of pulses; c) modulating each or at least part of the pulsed electric excitation signals by feeding to the said transducer elements only a predetermined portion of the said pulsed electric excitation signals,
A display, wherein the display comprises: a top cover and a bottom cover; and a display module comprising: a glass plate provided with a display screen component at one side; and a base provided with a bracket thereon; wherein the base comprises a bonding portion disposed outside the bracket for bonding the top cover and the bottom cover, and the glass plate is positioned in an opening of the top cover, characterized in that the glass plate is bonded to the bracket via an adhesive, such that the display screen component is received in an opening enclosed by the bracket, wherein a top surface of the glass plate is flush with a top surface of the top cover. a top cover and a bottom cover; and a display module comprising: a glass plate provided with a display screen component at one side; and a base provided with a bracket thereon; wherein the base comprises a bonding portion disposed outside the bracket for bonding the top cover and the bottom cover, and the glass plate is positioned in an opening of the top cover, a glass plate provided with a display screen component at one side; and a base provided with a bracket thereon; wherein the base comprises a bonding portion disposed outside the bracket for bonding the top cover and the bottom cover, and the glass plate is positioned in an opening of the top cover, characterized in that the glass plate is bonded to the bracket via an adhesive, such that the display screen component is received in an opening enclosed by the bracket, wherein a top surface of the glass plate is flush with a top surface of the top cover.
A heat exchanger, in particular for motor vehicles with a soldered block consisting of flat tubes or slightly ovalised flat tubes and ribs, wherein the flat tubes can be flowed through by a first medium and communicate with at least one collecting box and the ribs can be flowed over by a second medium, wherein the ribs are substantially flat and arranged in parallel to one another and have openings with contact surfaces so that the flat tubes are received in the openings and can be soldered in the region of the contact surfaces, characterised in that the contact surfaces are formed as conical passages or as slanted tabs which abut the longitudinal sides and/or the narrow sides of the flat tubes, wherein the passages or the tabs form a conical soldering gap (α) with the longitudinal sides and/or the narrow sides of the flat tubes.
A method to manufacture a ring molded article having two convex portions which respectively protrude on both sides of the ring molded article in a direction of a center axis thereof and extend in a direction of a circumference of the ring molded article, the method comprising: placing a ring material inside two molds on which concave portions respectively corresponding to the convex portions are respectively formed, in a condition in which the ring material is supported by a region located on an outer peripheral side of an outer peripheral side corner in the concave portion of one of the two molds and a region located on an inner peripheral side of an inner peripheral side corner in the concave portion of the other of the two molds, and then forging the ring material so as to be pressed by the two molds in a direction of a center axis of the ring material, and the ring molded article being thus produced.
A mobile electronic device, comprising: a first radio module (101, 103) communicating with a communications device (201, 203) in compliance with a first protocol; a second radio module communicating with a base station in compliance with a second protocol according to timing information of the base station; and a CLC, Co-Located Coexistence, radio manager detecting activities of the first radio module (101 or 103), receiving a traffic pattern from the first radio module (101 or 103) indicating a first traffic allocation for the first radio module (101 or 103), characterized by the CLC radio manager further generating one or more CLC bitmaps of the first radio module (101 or 103) by synchronizing the traffic pattern with the timing information of the base station, and transmitting the generated CLC bitmaps to the base station via the second radio module to recommend a second traffic allocation of a plurality of sub-frames or frames for the second radio module; and the second radio module further receiving a DL/UL, downlink/uplink, traffic allocation from the base station, and receiving or transmitting data from or to the base station according to the DL/UL traffic allocation. a first radio module (101, 103) communicating with a communications device (201, 203) in compliance with a first protocol; a second radio module communicating with a base station in compliance with a second protocol according to timing information of the base station; and a CLC, Co-Located Coexistence, radio manager detecting activities of the first radio module (101 or 103), receiving a traffic pattern from the first radio module (101 or 103) indicating a first traffic allocation for the first radio module (101 or 103), characterized by the CLC radio manager further generating one or more CLC bitmaps of the first radio module (101 or 103) by synchronizing the traffic pattern with the timing information of the base station, and transmitting the generated CLC bitmaps to the base station via the second radio module to recommend a second traffic allocation of a plurality of sub-frames or frames for the second radio module; and the second radio module further receiving a DL/UL, downlink/uplink, traffic allocation from the base station, and receiving or transmitting data from or to the base station according to the DL/UL traffic allocation.
A data transmission method, comprising: determining, by a first network device, that a terminal device enters a radio resource control RRC inactive state; characterized in that the method further comprises: sending (s11, s21), by the first network device, a first message to a second network device, wherein the first message is used to configure the second network device to transmit data for the terminal device in the RRC inactive state, wherein the first message comprises identification information of the first network device, identification information of the terminal device, a bearer that needs to be provided by the second network device for transmitting data for the terminal device in the RRC inactive state, and address information of the bearer on an Xn interface of the first network device; and receiving (s12, s22), by the first network device, an acknowledgment message that is for the first message and that is sent by the second network device. determining, by a first network device, that a terminal device enters a radio resource control RRC inactive state; characterized in that the method further comprises: sending (s11, s21), by the first network device, a first message to a second network device, wherein the first message is used to configure the second network device to transmit data for the terminal device in the RRC inactive state, wherein the first message comprises identification information of the first network device, identification information of the terminal device, a bearer that needs to be provided by the second network device for transmitting data for the terminal device in the RRC inactive state, and address information of the bearer on an Xn interface of the first network device; and receiving (s12, s22), by the first network device, an acknowledgment message that is for the first message and that is sent by the second network device. sending (s11, s21), by the first network device, a first message to a second network device, wherein the first message is used to configure the second network device to transmit data for the terminal device in the RRC inactive state, wherein the first message comprises identification information of the first network device, identification information of the terminal device, a bearer that needs to be provided by the second network device for transmitting data for the terminal device in the RRC inactive state, and address information of the bearer on an Xn interface of the first network device; and receiving (s12, s22), by the first network device, an acknowledgment message that is for the first message and that is sent by the second network device.
A high optical purity solvent cast or solvent coated toughened copolymer film or coating comprising a block copolymer having hard and soft blocks, wherein said film or coating contains less than 5.382 visible defects per m 2 (less than 0.5 visible defects per square foot), wherein said copolymer film contains no particle greater than 30 microns, wherein the visible defect has a diameter of greater than one-half of the (dried) film thickness, and having a maximum diameter less than what can be detected by the naked eye and wherein said film has a variation of thickness of no more than 3 % of the film thickness and wherein said film is formed by a solvent-casting film process or a solvent-coating process.
A vector for expression of a suppression agent for a disease causing gene and/or a replacement nucleic acid that is not recognized by the suppression agent, wherein the vector comprises conserved region B from the rhodopsin gene consisting of the nucleotide sequence shown as SEQ ID N0:408, and optionally at least one of the conserved regions selected from: (a) conserved region C from the rhodopsin gene consisting of the nucleotide sequence as shown in SEQ ID NO: 94; (b) conserved region F and G from the rhodopsin gene consisting of the nucleotide sequence as shown in SEQ ID NO: 97; and (c) conserved region A from the rhodopsin gene consisting of the nucleotide sequence shown as SEQ ID NO: 403; wherein said vector is an adeno associated virus vector. (a) conserved region C from the rhodopsin gene consisting of the nucleotide sequence as shown in SEQ ID NO: 94; (b) conserved region F and G from the rhodopsin gene consisting of the nucleotide sequence as shown in SEQ ID NO: 97; and (c) conserved region A from the rhodopsin gene consisting of the nucleotide sequence shown as SEQ ID NO: 403;
A substrate comprising a region where thin films are laminated on a transparent ground substrate, which thin films are, in the order mentioned from the upper surface of the substrate, an indium tin oxide thin film; an organic thin film having a film thickness of from 0.01 to 0.4 μm and a refractive index of from 1.58 to 1.85; and an organic thin film having a film thickness of from 0.7 to 20 μm and a refractive index of from 1.46 to 1.56, wherein said organic thin film contains a resin selected from the group consisting of polyimides, Cardo resins, acrylic resins, polysiloxanes, polybenzoxazoles, phenol resins, polyamideimides, polyethersulfones, polyurethanes, polyesters, polyimide precursors, polyamideimide precursors and polybenzoxazole precursors.
Bale forming and wrapping apparatus comprising - a bale forming means (10, 11a, 11b, 11c, 11d, 12, 13, 15, 18) and - a wrapping device, wherein the wrapping device comprises - at least one reservoir holder (30.1, 30.2) for holding a reservoir with wrapping material and - a bale supporting device, wherein the bale forming means (10, 11a, 11b, 11c, 11d, 12, 13, 15, 18) - provides a bale forming chamber and - is arranged to form a bale in the provided bale forming chamber, wherein the wrapping device is positioned outside of the provided bale forming chamber, wherein the bale forming and wrapping apparatus is arranged - to move a formed bale out of the bale forming chamber and - to carry the moved bale in a wrapping position outside of the bale forming chamber, and wherein the bale forming and wrapping apparatus is further arranged to wrap the bale carried in the wrapping position into wrapping material taken from the or from at least one reservoir, wherein the bale supporting device and the bale forming means (10, 11a, 11b, 11c, 11d, 12, 13, 15, 18) are arranged - to jointly carry a bale being in the wrapping position outside of the bale forming chamber and - to enable a rotation of the carried bale, wherein the bale carried in the wrapping position is positioned between - the bale supporting device and - the bale forming means (10, 11a, 11b, 11c, 11d, 12, 13, 15, 18), and wherein the bale forming and wrapping apparatus is arranged to rotate and to wrap the bale while the bale is jointly carried in the wrapping position characterised in that the wrapping device further comprises a reservoir moving device, wherein the reservoir moving device is arranged to move the or every reservoir holder (30.1, 30.2) around the bale carried in the wrapping position. - a bale forming means (10, 11a, 11b, 11c, 11d, 12, 13, 15, 18) and - a wrapping device, - at least one reservoir holder (30.1, 30.2) for holding a reservoir with wrapping material and - a bale supporting device, - provides a bale forming chamber and - is arranged to form a bale in the provided bale forming chamber, - to move a formed bale out of the bale forming chamber and - to carry the moved bale in a wrapping position outside of the bale forming chamber, and - to jointly carry a bale being in the wrapping position outside of the bale forming chamber and - to enable a rotation of the carried bale, - the bale supporting device and - the bale forming means (10, 11a, 11b, 11c, 11d, 12, 13, 15, 18), and
Hydraulic pressure calibrator, comprising piping adapted for accommodating a compressible hydraulic fluid to be pressurised, said piping having a connector adapted for enabling a fluid connection to a device to be calibrated, the calibrator further comprising a pressure transducer adapted for sensing the pressure of hydraulic fluid inside the piping, and a fluid pump adapted for increasing pressure of hydraulic fluid inside the piping, wherein the calibrator further comprises an intensifier adapted for intensifying fluid pressure provided by the pressure pump, wherein the intensifier has a first cylinder housing a first piston and a second cylinder housing a second piston linked to the first piston to form a piston assembly, wherein the first cylinder is in fluid connection to the piping, and wherein the second piston adapted to be moved by means of the fluid pump, further comprising a displacement sensor adapted for sensing the displacement of the first piston and/or second piston, characterized in an inlet valve adapted for introducing additional hydraulic fluid into the piping and/or an outlet valve adapted for letting a surplus of hydraulic fluid out of the piping, further comprising an isolation valve adapted for isolating a part of the piping comprising the connector for enabling a fluid connection to a device to be calibrated from a part of the piping comprising the inlet valve and/or the outlet valve, wherein the isolation valve the intesifier, and the displacement sensor are connected to a control unit arranged for controlling the intensifier and obtaining data including data from the displacement sensor and controlling the isolation valve.
An electronic security seal comprising: a body; an elongated electrically conductive shackle (6, 158); an electrical circuit for measuring impedance and for indicating a tamper condition; a locking arrangement for adjustably locking the shackle to the body; and first and second electrically conductive terminals (146, 146', 146") secured to the body and coupled to the shackle in a shackle locked state, characterized in that: the terminals form a complex impedance with the shackle which is spaced from the terminals by a gap to form a capacitance, the impedance manifesting the shackle length between the terminals. a body; an elongated electrically conductive shackle (6, 158); an electrical circuit for measuring impedance and for indicating a tamper condition; a locking arrangement for adjustably locking the shackle to the body; and first and second electrically conductive terminals (146, 146', 146") secured to the body and coupled to the shackle in a shackle locked state, characterized in that: the terminals form a complex impedance with the shackle which is spaced from the terminals by a gap to form a capacitance, the impedance manifesting the shackle length between the terminals.