mhurhangee/ep-ind-claims huggingface dataset:
Heat blanket comprising a power supply control unit and an operating unit, wherein said power supply control unit is electrically connectable on one side to an alternating current electric supply and on the other side it is electrically connectable, through an interconnection cable comprising two conductors (510, 520) only, to said operating unit that includes a foldable sheet and a heating element distributed within the sheet, said heat blanket being characterized in that: said power supply control unit contains means for supplying said heating element with alternating voltage having first and second polarity managed in a separate way, wherein the first polarity is managed by an electro-mechanical switch connected in series to a diode type semiconductor, while the second polarity is managed by a switching element controlled by an electronic circuit. said power supply control unit contains means for supplying said heating element with alternating voltage having first and second polarity managed in a separate way, wherein the first polarity is managed by an electro-mechanical switch connected in series to a diode type semiconductor, while the second polarity is managed by a switching element controlled by an electronic circuit.
A vehicle driving control method depending on a baby mode, the method comprising: in a response that the baby mode is activated, receiving (S 120) information on a state of a vehicle seat; correcting (S 130, S 140) a center state of charge value of a battery of the vehicle according to the information on the state of the vehicle seat; determining (S 140, S 160) a state of a transmission of the vehicle; and performing (S 170, S 175, S 180, S 185) regenerative brake reinforcing and brake pedal stroke scale/filtering correction control or an electric vehicle mode reinforcing and accelerator position sensor scale/filtering correction control according to the state of the transmission of the vehicle and the state of the vehicle seat. in a response that the baby mode is activated, receiving (S 120) information on a state of a vehicle seat; correcting (S 130, S 140) a center state of charge value of a battery of the vehicle according to the information on the state of the vehicle seat; determining (S 140, S 160) a state of a transmission of the vehicle; and performing (S 170, S 175, S 180, S 185) regenerative brake reinforcing and brake pedal stroke scale/filtering correction control or an electric vehicle mode reinforcing and accelerator position sensor scale/filtering correction control according to the state of the transmission of the vehicle and the state of the vehicle seat.
Process for preparing a cyclic silane compound of the formula Si 6 R 12 by reaction of 2 [Si 6 Cl 14] with AlR 3 in at least one organic solvent, wherein R is chlorine or methyl and X, which may be identical or different, is a countercation and is preferably selected from organo-substituted ammonium, organo-substituted phosphonium, alkali metal ions and [(PEDETA) (H 2 SiCl)] +.
A transport set comprising a transportation platform or a base carriage and a transport carriage able to be raised and rest on the base carriage, characterised in that the base carriage, resting on four swivel wheels, has a C-shaped frame with side arms located at an angle in relation to its longitudinal axis and equipped with sliding beds with partially half-open vertical rollovers or pilot vertical surfaces and a locking mechanism whereby the transport carriage located between the side arms of the base carriage is equipped with a chassis frame that seats or rests on four swivel wheels, a coupling system cooperating with a locking mechanism, immobilising the transport carriage on the base carriage and a raising and locking mechanism with a directional mechanism and a transport frame seating or resting on the chassis frame and adapted to enter on the sliding beds of the base carriage having a width (a), as measured in the direction of longitudinal axis of the transportation platform or base carriage, larger than a distance (c) between the lower vertical side planes of the sliding beds and less than a distance (b) between top vertical side planes of the sliding beds, which are equipped with partially half-open rollovers or vertical pilot surfaces, whereas at a front and at a bottom, each of side elements of the transport frame has rollovers with skewed bottom leading edges, the beginnings of which are located at a height (h 1), as measured from the ground, larger than a height(h 3), as measured from the ground, of the horizontal top plane of the sliding beds, and the ends of which are located at a height (h 2), as measured from the ground, less than the height (h 3) of the horizontal top plane of the sliding beds.
Device for transporting objects, preferably containers in a container processing system, comprising: a guide track having a signal line, preferably a data bus line; and at least one movement device which can be guided along the guide track, and which comprises a holder, preferably a container neck holder or a container casing holder, for holding an object, preferably a container, and a communication interface by means of which the signal line can be contacted for signal transmission, the at least one movement device comprising a guide element for guiding the at least one movement device along the guide track, characterized in that the communication interface is integrated into the guide element. a guide track having a signal line, preferably a data bus line; and at least one movement device which can be guided along the guide track, and which comprises a holder, preferably a container neck holder or a container casing holder, for holding an object, preferably a container, and a communication interface by means of which the signal line can be contacted for signal transmission, the at least one movement device comprising a guide element for guiding the at least one movement device along the guide track,
A frame assembly for an open roof assembly, the frame assembly comprising a first beam, a second beam (52; 53) and a panel, wherein • the first beam and the second beam are mechanically coupled in a joint area, thereby forming a seam; • a sealant is provided in the joint area for providing a liquid-tight joint; characterized in that • the panel is at least partly arranged over the first beam and the second beam (52; 53) such that the joint area is at least partly overlapped by the panel; and • an adhesive bead is solely provided on the first beam for supporting and holding the panel on the first beam, the adhesive bead sealing a dry area between the first beam and the panel. • the first beam and the second beam are mechanically coupled in a joint area, thereby forming a seam; • a sealant is provided in the joint area for providing a liquid-tight joint; characterized in that • the panel is at least partly arranged over the first beam and the second beam (52; 53) such that the joint area is at least partly overlapped by the panel; and • an adhesive bead is solely provided on the first beam for supporting and holding the panel on the first beam, the adhesive bead sealing a dry area between the first beam and the panel.
Method for monitoring a container or the contents in a volume (39, 47), comprising the steps of allowing gamma and/or neutron radiation emerging from said container or volume (39, 47), to pass through a single measuring volume (12, 12') of at least one radiation detector (10, 10', 10"), said single measuring volume (12, 12') extending along a longitudinal axis and containing a noble gas and/or a noble gas isotope, or a mixture of noble gases and/or noble gas isotopes; the method being characterized in the steps of detecting the photons generated within said single measuring volume (12, 12') by an interaction (18, W1,...,W4) of the radiation with the noble gas or noble gases and/or their isotopes of the single measuring volume (12, 12') by means of at least two photon detecting means, especially photon counters or avalanche photodiodes, (15,16,53), arranged at opposite ends of the measuring volume (12, 12') with respect to said axis; processing signals from said photon detecting means by signal processing means (27,.., 32) and, based on pulse-shape discrimination, discriminating by said signal processing means (27,.., 32) between gamma radiation and neutrons generating photons by a scintillation interaction in the single measuring volume (12,12').
A sealing, guiding or trimming assembly for sealing a closure member, the assembly including an unreinforced extruded part for sealing against a surface of the closure member and having a base with first and second walls extending from said base; a reinforcing member in which said extruded part is at least partially accommodated; and a moulded part moulded at least partially over said reinforcing member, characterised in that the moulded part is moulded onto said extruded part to define a first region where said moulded part contacts said first side wall and a second region where said moulded part contacts said second side wall.
A child safety seat configured to secure an occupant seated in the child safety seat with a safety belt of a vehicle, comprising - a seat base; and - a safety belt clip, wherein the safety belt clip is coupled to the seat base of the child safety seat and the safety belt clip is adapted to engage with a lap portion of a safety belt, the safety belt clip comprising a guiding element comprising an engaging element and a positioning component, wherein the positioning component is adapted to position the engaging element at a distance from the seat base; wherein the engaging element is adapted to engage with the lap portion of the safety belt; and wherein the guiding element is configured to drive the lap portion of the safety belt towards the pelvic region of the occupant secured in the child safety seat with the safety belt, wherein the distance of the engaging element from the seat base is configured to be adjustable up to 40 mm. - a seat base; and - a safety belt clip, wherein the safety belt clip is coupled to the seat base of the child safety seat and the safety belt clip is adapted to engage with a lap portion of a safety belt, the safety belt clip comprising
A method for optical macro-twist determination on cylindrical workpieces using scattered light measurements, wherein the workpiece is illuminated in a skimming manner with a light beam in a predeterminable surface region perpendicularly to the rotation axis and the reflected diffraction images, assigned to a specific predeterminable rotational angle step (Δα) of the workpiece, are captured by a 2-dimensional CCD array and are stored, characterised in that all the individual adjacent scattered light images obtained in this way are compiled in sequence to form a 360° total scattered light distribution, wherein, should a twist be present, a diffraction image comprising the shaft is created which contains all the initial information for period length, twist direction and pitch, twist angle and twist depth and which is evaluated and processed to determine these in a way that the intensity maxima are determined from the intensities resulting from the summation of all line elements of the individual images and the period length of the twist structure is determined from their interval using the diffraction equation DP = mλ sin Θ i tan φ m where λ is the wavelength of the incident light, Θ i is the angle of incidence, m is the diffraction order and φ m is the azimuth angle of the diffraction maxima, which can be assigned to defined image lines of the panoramic total scattered light distribution, and subsequently the periodicity of the intensity distribution in the 1 st diffraction order is determined, which is a direct measure of the twist direction and pitch of the twisted structure, and using this number and the determined period length DW = a tan DP * G D * π, the twist angle is calculated, D being the diameter of the cylindrical workpiece.
A method of wireless communications by a base station interfering or potentially interfering with a user equipment, UE, comprising: generating information for use by the UE in performing interference mitigation when processing a signal from a serving base station; and transmitting the information to the UE; wherein the information comprises network assisted interference cancelation, NAIC, information, and wherein the information is transmitted as NAIC downlink control information, N-DCI, whose payload indicates how long the N-DCI is valid. generating information for use by the UE in performing interference mitigation when processing a signal from a serving base station; and transmitting the information to the UE; wherein the information comprises network assisted interference cancelation, NAIC, information, and wherein the information is transmitted as NAIC downlink control information, N-DCI, whose payload indicates how long the N-DCI is valid.
A picture frame assembly comprising: - a base plate with a border edge arranged on the base plate such as to form a depression, - a board received within said depression, and - a frame provided as a topmost element, wherein the border edge and the board each comprise a number of profiled members in the form of protrusions (12A, 21A) and recesses (12B, 21B), respectively, wherein the protrusions of the board fully interlock with the recesses of the border edge and the protrusions of the border edge fully interlock with the recesses of the board in a coplanar manner, when the board is received within the depression, and wherein the fully interlocking profiled members (12A, 21B, 12B, 21A) form a boundary interface, said interface being completely covered by the frame, characterized in that by the protrusions and the recesses of the board a plurality of the same boards can be joined to each other by fully interlocking the protrusions and the recesses of the boards to form a collage in a coplanar manner. - a base plate with a border edge arranged on the base plate such as to form a depression, - a board received within said depression, and - a frame provided as a topmost element,
An airfoil assembly comprising: a support structure; and a plurality of airfoils each having a body portion comprising a leading edge, a trailing edge, a pressure side, and a suction side, each of the plurality of airfoils having a root portion consisting of a compliant attachment bonded to a bottom surface of the body portion, the compliant attachment being connected to the support structure and having a coefficient of thermal expansion intermediate between a coefficient of thermal expansion of the body portion and a coefficient of thermal expansion of the support structure, wherein the support structure is a rotor, hub or end wall, wherein the support structure is formed from a metallic material, characterised in that the body portion of the airfoil is formed from a nonmetallic material. a support structure; and a plurality of airfoils each having a body portion comprising a leading edge, a trailing edge, a pressure side, and a suction side, each of the plurality of airfoils having a root portion consisting of a compliant attachment bonded to a bottom surface of the body portion, the compliant attachment being connected to the support structure and having a coefficient of thermal expansion intermediate between a coefficient of thermal expansion of the body portion and a coefficient of thermal expansion of the support structure, wherein the support structure is a rotor, hub or end wall,
A loudspeaker system comprising • an input unit providing an electric input audio signal (eIN); • an equalization unit for modifying said electric input audio signal (eIN) or a processed version thereof in dependence on frequency and to provide an equalized electric audio signal (eINeq) according to a predefined equalization function, and • a loudspeaker unit for converting said equalized electric audio signal (eINeq) or a processed version thereof to an acoustic output sound signal, • a user interface for modifying a volume level of said output sound signal in a multitude of steps V 0, V 1,..., V N, • an I/O control unit (I/O-CNT) for monitoring a connected audio interface to the loudspeaker system, wherein the equalization unit is configured to apply a specific equalization function EQ 0, EQ 1,..., EQ N to the electric input audio signal (eIN) in each of said multitude of steps V 0, V 1,..., V N of the volume level, each predefined specific equalization function EQ 0, EQ 1,..., EQ N indicates a predefined frequency dependent gain to be applied to the audio signal when a corresponding volume V 0, V 1,..., V N is selected, the loudspeaker system is configured to operate in at least two modes of operation, a first mode operating in a full bandwidth mode and a second mode operating in a limited bandwidth mode, and the loudspeaker system is further configured to automatically be brought in the first mode or the second mode depending on the currently connected audio interface. • an input unit providing an electric input audio signal (eIN); • an equalization unit for modifying said electric input audio signal (eIN) or a processed version thereof in dependence on frequency and to provide an equalized electric audio signal (eINeq) according to a predefined equalization function, and • a loudspeaker unit for converting said equalized electric audio signal (eINeq) or a processed version thereof to an acoustic output sound signal, • a user interface for modifying a volume level of said output sound signal in a multitude of steps V 0, V 1,..., V N, • an I/O control unit (I/O-CNT) for monitoring a connected audio interface to the loudspeaker system, the equalization unit is configured to apply a specific equalization function EQ 0, EQ 1,..., EQ N to the electric input audio signal (eIN) in each of said multitude of steps V 0, V 1,..., V N of the volume level, each predefined specific equalization function EQ 0, EQ 1,..., EQ N indicates a predefined frequency dependent gain to be applied to the audio signal when a corresponding volume V 0, V 1,..., V N is selected, the loudspeaker system is configured to operate in at least two modes of operation, a first mode operating in a full bandwidth mode and a second mode operating in a limited bandwidth mode, and the loudspeaker system is further configured to automatically be brought in the first mode or the second mode depending on the currently connected audio interface.
A method for performing an uplink, UL, multi-user, MU, transmission by a Station, STA, in a wireless communication system, comprising: receiving a downlink, DL, MU Physical Protocol Data Unit, PPDU, wherein the DL MU PPDU includes DL data and trigger information for the UL MU transmission; and transmitting a UL MU PPDU generated based on the DL MU PPDU, when the trigger information is transmitted for multiple stations, STAs: - the trigger information is included in a preconfigured data field of the DL MU PPDU as a Medium Access Control, MAC, Protocol Data Unit, MPDU, format; - the DL data is included in another data field in the DL MU PPDU as the MPDU format or an Aggregated MPDU, A-MPDU, format, wherein frequency resources are allocated to the multiple STAs sequentially; - a High Efficiency Signal, HE-SIG, B field (3710; 3810) in the DL MU PPDU includes Broadcast Association Identifier, AID, Information, and when the trigger information is for a single STA: - the trigger information and the DL data are transmitted in the DL MU PPDU for the single STA, and wherein - an acknowledge, ACK, frame in response to the DL data and an UL MU frame in response to the trigger information are transmitted in the UL MU PPDU. receiving a downlink, DL, MU Physical Protocol Data Unit, PPDU, wherein the DL MU PPDU includes DL data and trigger information for the UL MU transmission; and transmitting a UL MU PPDU generated based on the DL MU PPDU, when the trigger information is transmitted for multiple stations, STAs: - the trigger information is included in a preconfigured data field of the DL MU PPDU as a Medium Access Control, MAC, Protocol Data Unit, MPDU, format; - the DL data is included in another data field in the DL MU PPDU as the MPDU format or an Aggregated MPDU, A-MPDU, format, wherein frequency resources are allocated to the multiple STAs sequentially; - a High Efficiency Signal, HE-SIG, B field (3710; 3810) in the DL MU PPDU includes Broadcast Association Identifier, AID, Information, and - the trigger information is included in a preconfigured data field of the DL MU PPDU as a Medium Access Control, MAC, Protocol Data Unit, MPDU, format; - the DL data is included in another data field in the DL MU PPDU as the MPDU format or an Aggregated MPDU, A-MPDU, format, wherein frequency resources are allocated to the multiple STAs sequentially; - a High Efficiency Signal, HE-SIG, B field (3710; 3810) in the DL MU PPDU includes Broadcast Association Identifier, AID, Information, and when the trigger information is for a single STA: - the trigger information and the DL data are transmitted in the DL MU PPDU for the single STA, and - the trigger information and the DL data are transmitted in the DL MU PPDU for the single STA, and wherein - an acknowledge, ACK, frame in response to the DL data and an UL MU frame in response to the trigger information are transmitted in the UL MU PPDU. - an acknowledge, ACK, frame in response to the DL data and an UL MU frame in response to the trigger information are transmitted in the UL MU PPDU.
A method of preparing butadiene having excellent catalyst reproducibility, comprising: a reaction step of introducing a reactant containing butene, oxygen, nitrogen, and steam as constituents into a reactor filled with a metal oxide catalyst, and performing oxidative dehydrogenation reaction at a temperature of 300 to 450 °C; a first cooling step of, after the reaction step, maintaining supply of the reactant within a range within which a flow rate change rate of each of the constituents is less than ±40 % or stopping supply of the butene contained in the reactant, and cooling the reactor to a temperature range of 200 °C or lower and higher than 70 °C; and a second cooling step of, after the first cooling step, stopping supply of the reactant or stopping at least supply of the butene contained in the reactant, and cooling the reactor to a temperature of 70 °C or lower. a reaction step of introducing a reactant containing butene, oxygen, nitrogen, and steam as constituents into a reactor filled with a metal oxide catalyst, and performing oxidative dehydrogenation reaction at a temperature of 300 to 450 °C; a first cooling step of, after the reaction step, maintaining supply of the reactant within a range within which a flow rate change rate of each of the constituents is less than ±40 % or stopping supply of the butene contained in the reactant, and cooling the reactor to a temperature range of 200 °C or lower and higher than 70 °C; and a second cooling step of, after the first cooling step, stopping supply of the reactant or stopping at least supply of the butene contained in the reactant, and cooling the reactor to a temperature of 70 °C or lower.