mhurhangee/ep-ind-claims huggingface dataset:
Radio-suppressed drive unit, in particular for driving a motor vehicle fan, which has an electric motor and a control unit connected thereto, the control unit having an electrically conductive housing part, and which has a power supply connection for supplying power to the electric motor which has an earth-connecting line, characterised in that electrical contact is made between the electrically conductive housing part of the control unit and the earth-connecting line of the electric motor, wherein an insulated portion of the earth-connecting line is clamped in a clamping region between the electrically conductive housing part of the control unit and a counter-element, and the counter-element forming a portion of a housing for accommodating the electric motor and control unit, the housing having an opening in which the electrically conductive housing part of the control unit is arranged and through which the earth-connecting line passes, with the edge of the opening forming the portion of the housing for clamping the earth-connecting line or for fixing a spring element (16, 21).
An article transport vehicle for use in an article transport facility in which a plurality of article transport vehicles travel along a track so as to transport articles, the article transport vehicle comprising: an obstacle sensor having a detection area that includes at least a width of own vehicle in a width direction extending along a horizontal plane and orthogonal to an advancing direction of the own vehicle and that expands in the advancing direction, characterized in that the article transport vehicle controls travel of the own vehicle, based on a front inter-object distance corresponding to own-vehicle position information (Qf) indicating a position on the track of the own vehicle and front object position information indicating a position on the track of a front object that is located in front of the own vehicle and whose position on the track is specified, characterised in that the article transport vehicle sets a length of the detection area along the advancing direction of the obstacle sensor to be variable according to the front inter-object distance such that the length is less than the front inter-object distance. an obstacle sensor having a detection area that includes at least a width of own vehicle in a width direction extending along a horizontal plane and orthogonal to an advancing direction of the own vehicle and that expands in the advancing direction, characterized in that the article transport vehicle controls travel of the own vehicle, based on a front inter-object distance corresponding to own-vehicle position information (Qf) indicating a position on the track of the own vehicle and front object position information indicating a position on the track of a front object that is located in front of the own vehicle and whose position on the track is specified, characterised in that the article transport vehicle sets a length of the detection area along the advancing direction of the obstacle sensor to be variable according to the front inter-object distance such that the length is less than the front inter-object distance.
A unit dosage form comprising: intragranular components: (a) 35.00 weight percent neratinib maleate, calculated as free base (b) 38.94 weight percent mannitol (c) 10.56 weight percent microcrystalline cellulose (d) 3.00 weight percent crospovidone (e) 5.00 weight percent povidone (f) 2.00 weight percent colloidal SiO 2 extragranular components: (g) 1.50 weight percent microcystalline cellulose (h) 2.00 weight percent crospovidone (i) 2.00 weight percent Mg Stearate. intragranular components: (a) 35.00 weight percent neratinib maleate, calculated as free base (b) 38.94 weight percent mannitol (c) 10.56 weight percent microcrystalline cellulose (d) 3.00 weight percent crospovidone (e) 5.00 weight percent povidone (f) 2.00 weight percent colloidal SiO 2 (a) 35.00 weight percent neratinib maleate, calculated as free base (b) 38.94 weight percent mannitol (c) 10.56 weight percent microcrystalline cellulose (d) 3.00 weight percent crospovidone (e) 5.00 weight percent povidone (f) 2.00 weight percent colloidal SiO 2 extragranular components: (g) 1.50 weight percent microcystalline cellulose (h) 2.00 weight percent crospovidone (i) 2.00 weight percent Mg Stearate. (g) 1.50 weight percent microcystalline cellulose (h) 2.00 weight percent crospovidone (i) 2.00 weight percent Mg Stearate.
A portable device adapted to be placed on a seating area of a chair with backrest for supporting a person's (201, 301) upper body when seated on the seating area (202, 302, 603), the device comprising: - a base configured to be placed on the seating area (202, 302, 603); and - an elongated support member comprising a first and second end, the elongated support member at the first end being coupled to the base and being telescopically extendable therefrom such that in an operational 10 position, when the base is placed on the seating area (202, 302, 603), the second end is securely positioned at a height of the person's chest (203, 303), the elongated support member further comprising a chest support near the second end configured to support the person's chest in the operational position; and - a head rest support pivotably coupled to the second end such that in the operational position the head rest support is securely pivotable towards the person's head thereby supporting the seated person's upper body in forward and backward leaning positions, wherein when the person sits in forward position, the second end and head rest support are configured to have his chest leaning against the second end while his head is supported by the head rest support, thereby supporting the upper body, as well as, when the person leans backwards in a backward leaning position with his back against the back rest of the chair, the second end and head rest support are configured to have the second end push against his chest while the head rest support supports his head, thereby again supporting the upper body. - a base configured to be placed on the seating area (202, 302, 603); and - an elongated support member comprising a first and second end, the elongated support member at the first end being coupled to the base and being telescopically extendable therefrom such that in an operational 10 position, when the base is placed on the seating area (202, 302, 603), the second end is securely positioned at a height of the person's chest (203, 303), the elongated support member further comprising a chest support near the second end configured to support the person's chest in the operational position; and - a head rest support pivotably coupled to the second end such that in the operational position the head rest support is securely pivotable towards the person's head thereby supporting the seated person's upper body in forward and backward leaning positions, wherein when the person sits in forward position, the second end and head rest support are configured to have his chest leaning against the second end while his head is supported by the head rest support, thereby supporting the upper body, as well as, when the person leans backwards in a backward leaning position with his back against the back rest of the chair, the second end and head rest support are configured to have the second end push against his chest while the head rest support supports his head, thereby again supporting the upper body.
Method for execution in a mobile station that is receiving control information on a High-Speed Shared Control Channel, HS-SCCH, which is a signalling channel of a radio interface between the mobile station and a High-Speed Downlink Packet Access, HSDPA, radio access network in a wireless telecommunications system, wherein the HS-SCCH signalling channel is a shared physical layer channel used to transmit said control information, the method comprising: storing default HS-SCCH parameters received via Radio Resource Control, RRC, signalling for use in decoding data packets received over a High-Speed Physical Downlink Shared Channel, HS-PDSCH, which is a shared data channel; receiving said control information signaled on the HS-SCCH signalling channel; determining, using a mask for the mobile station, whether the control information is for said mobile station; responsive to determining that the control information is for said mobile station, decoding a said data packet on the shared data channel according to said control information; responsive to determining that the control information is not for said mobile station, decoding the data packet on the shared data channel using said stored HS-SCCH parameters; and delivering decoded data to higher layers. storing default HS-SCCH parameters received via Radio Resource Control, RRC, signalling for use in decoding data packets received over a High-Speed Physical Downlink Shared Channel, HS-PDSCH, which is a shared data channel; receiving said control information signaled on the HS-SCCH signalling channel; determining, using a mask for the mobile station, whether the control information is for said mobile station; responsive to determining that the control information is for said mobile station, decoding a said data packet on the shared data channel according to said control information; responsive to determining that the control information is not for said mobile station, decoding the data packet on the shared data channel using said stored HS-SCCH parameters; and delivering decoded data to higher layers.
A time domain resource configuration method, characterized by comprising: obtaining configuration information of a physical random access channel, PRACH; wherein the configuration information includes a first configuration value, and the first configuration value is used to indicate a configuration number of PRACH slots in each target time domain granularity; determining distribution of the PRACH slots in a target time domain granularity according to the configuration information; and determining validity of PRACH occasions in the PRACH slots; wherein the determining distribution of the PRACH slots in the target time domain granularity according to the configuration information, includes: segmenting the target time domain granularity according to the configuration information; determining distribution of PRACH slots in each segment of the target time domain granularity, according to the configuration number of PRACH slots; wherein N' consecutive slots are selected, in time sequence from back to front, from each segment of the target time domain granularity, as PRACH slots, and N' is the configuration number of the PRACH slots in each target time domain granularity. obtaining configuration information of a physical random access channel, PRACH; wherein the configuration information includes a first configuration value, and the first configuration value is used to indicate a configuration number of PRACH slots in each target time domain granularity; determining distribution of the PRACH slots in a target time domain granularity according to the configuration information; and determining validity of PRACH occasions in the PRACH slots; wherein the determining distribution of the PRACH slots in the target time domain granularity according to the configuration information, includes: segmenting the target time domain granularity according to the configuration information; determining distribution of PRACH slots in each segment of the target time domain granularity, according to the configuration number of PRACH slots; wherein N' consecutive slots are selected, in time sequence from back to front, from each segment of the target time domain granularity, as PRACH slots, and N' is the configuration number of the PRACH slots in each target time domain granularity. segmenting the target time domain granularity according to the configuration information; determining distribution of PRACH slots in each segment of the target time domain granularity, according to the configuration number of PRACH slots; wherein N' consecutive slots are selected, in time sequence from back to front, from each segment of the target time domain granularity, as PRACH slots, and N' is the configuration number of the PRACH slots in each target time domain granularity.
Use of a composition comprising at least one hydrocarbon oil in a quantity of 100% by weight with respect to the total weight of the composition, as emollient composition, said hydrocarbon oil having an isoparaffin content by weight of 95 to 100%, a normal paraffin content by weight of from 0 to 5%, a content by weight of aromatic compounds less than or equal to 100 ppm and having a content of carbon of biological origin greater than or equal to 90% with respect to the total weight of hydrocarbon oil, said hydrocarbon oil having a biodegradability at 28 days of at least 60%, measured according to standard OECD 306, wherein the hydrocarbon oil has a boiling temperature ranging from 230 to 340°C, according to the standard ASTM D86.
A method for increasing blooming of fragrance during ironing a fabric comprising laundering the fabric with a composition comprising: a) a linear polyether having a weight average molecular weight less than 5000 that is terminated with -N-(-CH 2 -CH -CH 2 -Cl) 2, and b) fragrance, and ironing the fabric. a) a linear polyether having a weight average molecular weight less than 5000 that is terminated with -N-(-CH 2 -CH -CH 2 -Cl) 2, and b) fragrance,
An exchangeable electrode and ECG cable snap connector unit comprising: means for mounting to a male electrical connector of a base ECG electrode; at least one plug-in socket for receiving a lead wire connector of a remote ECG electrode having a lead wire and said lead wire connector; an interconnect receiver for removably mating with a mount tongue of an ECG module; an interconnect contact for electrically contacting a charging/communication pin of the ECG module; and circuitry for electrically connecting the ECG module, base ECG electrode and remote ECG electrode. means for mounting to a male electrical connector of a base ECG electrode; at least one plug-in socket for receiving a lead wire connector of a remote ECG electrode having a lead wire and said lead wire connector; an interconnect receiver for removably mating with a mount tongue of an ECG module; an interconnect contact for electrically contacting a charging/communication pin of the ECG module; and circuitry for electrically connecting the ECG module, base ECG electrode and remote ECG electrode.
A heat dissipation device, comprising: a first casing; a second casing coupled to the first casing, the second casing (120, 120a, 120b, 120c, 120d, 120e, 120f, 120g) including: a body having, an inner surface and an outer surface opposite the inner surface, at least two portions (A1, A2), at least two of the portions (A1, A2) having a different cross-sectional area, and a plurality of columns on the inner surface; and a first wick structure (140, 141a, 140c, 140d, 141e, 170, 141f, 180, 190) disposed on the inner surface and in at least two of the portions (A1, A2), characterized in that the first wick structure (140, 141a, 140c, 140d, 141e, 170, 141f, 180) is a bundle wick structure and the heat dissipation device further comprises a sheet-like wick structure. a first casing; a second casing coupled to the first casing, the second casing (120, 120a, 120b, 120c, 120d, 120e, 120f, 120g) including: a body having, an inner surface and an outer surface opposite the inner surface, at least two portions (A1, A2), at least two of the portions (A1, A2) having a different cross-sectional area, and a plurality of columns on the inner surface; and an inner surface and an outer surface opposite the inner surface, at least two portions (A1, A2), at least two of the portions (A1, A2) having a different cross-sectional area, and a plurality of columns on the inner surface; and a first wick structure (140, 141a, 140c, 140d, 141e, 170, 141f, 180, 190) disposed on the inner surface and in at least two of the portions (A1, A2), characterized in that the first wick structure (140, 141a, 140c, 140d, 141e, 170, 141f, 180) is a bundle wick structure and the heat dissipation device further comprises a sheet-like wick structure.
A saw assembly (100; 400; 500) comprising: a saw (110; 400; 500) including a blade assembly (114; 414; 514) and a motor (112; 412; 512) operable to turn a blade (158; 458; 558) of a blade assembly (114; 414; 514) to cut a structure, the blade assembly (114; 414; 514) including a blade guard (150; 450; 550) and being internally wetted during operation by nozzles (164; 464; 564) disposed on opposing sides of the blade (158; 458; 558) to provide water onto the blade (158; 458; 558) within a blade guard (150; 450; 550) configured to shield a portion of the blade; characterized in that the nozzles (164; 464; 564) are positioned to extend into a portion of the blade guard (150; 450; 550) and to point toward the blade (158; 458; 558) at an upward angle relative to an axis of rotation of the blade (158; 458; 558) when the saw assembly (100; 400; 500) is in an operational position.
An electric powered vehicle, comprising: an electric motor generating a vehicle driving force, a power storage device, an inverter driving said electric motor, a voltage conversion device provided between said inverter and said power storage device, and configured to boost an input voltage of said inverter higher than a voltage of said power storage device, and characterized by comprising a control device controlling said voltage conversion device, said control device setting, in backward running, said input voltage to be higher than said input voltage applied in forward running for an identical level of required acceleration for the vehicle. an electric motor generating a vehicle driving force, a power storage device, an inverter driving said electric motor, a voltage conversion device provided between said inverter and said power storage device, and configured to boost an input voltage of said inverter higher than a voltage of said power storage device, and characterized by comprising a control device controlling said voltage conversion device, said control device setting, in backward running, said input voltage to be higher than said input voltage applied in forward running for an identical level of required acceleration for the vehicle.
Method of mass culture of Lecane rotifers, used in activated sludge bulking control in wastewater treatment plants, applied out of the activated sludge bioreactors, characterized by maintaining culture in plates, in a liquid medium and fed with artificial nourishment, wherein the medium is spring water and the nourishment is a mixture of dry egg yolk and cocoa solids.
Control apparatus, wherein the control apparatus comprises: - an apparatus for ascertaining at least one primary data path for transmitting high-availability, time-critical messages between a first and a second data terminal device that are connected to a data network, taking account of a traffic load, wherein high-availability, time-critical data traffic is separated from data traffic whose control can be dependent on a current availability of data transmission resources (20i, 22i); - an apparatus for selecting one of the ascertained primary data paths; and - an apparatus for ascertaining at least one alternative data path for transmitting the high-availability, time-critical messages between the first and the second data terminal device taking account of a traffic load, which at least one alternative data path has no shared transmission links with the selected primary data path. - an apparatus for ascertaining at least one primary data path for transmitting high-availability, time-critical messages between a first and a second data terminal device that are connected to a data network, taking account of a traffic load, wherein high-availability, time-critical data traffic is separated from data traffic whose control can be dependent on a current availability of data transmission resources (20i, 22i); - an apparatus for selecting one of the ascertained primary data paths; and - an apparatus for ascertaining at least one alternative data path for transmitting the high-availability, time-critical messages between the first and the second data terminal device taking account of a traffic load, which at least one alternative data path has no shared transmission links with the selected primary data path.
A sheet-like gas sensing device comprising a first cell having a first solid electrolyte layer and first opposing electrodes (308, 310) formed on the front and rear faces of the first solid electrolyte layer, and a hollow measuring chamber to which gas is introduced through a first porous portion and facing one of the first opposing electrodes, wherein at least part of an external face of the first porous portion, the external face being directed to an outermost virtual face, the outermost virtual face being defined by connecting outermost faces of the gas sensing device, is located inside the outermost virtual face so that the part is inwardly recessed from the outermost virtual face, whereby a concave portion is formed between the part of the external face and the outermost virtual face, the sheet-like gas sensing device further comprising a second porous portion having a smaller diffusion resistance than the first porous portion with part thereof invading into the concave portion while being in contact with at least an opening edge of the concave portion such that the opening edge is not exposed outside, wherein the outermost virtual face is defined as the convex enveloping surface enveloping the gas sensing device not taking into account the first porous portion and the second porous portion, the first porous portion is overlaid on the first cell while the measuring chamber is defined by the first cell and the first porous portion, the gas sensing device further comprises a shielding layer which is overlaid on the first cell via the first porous portion, and the first porous portion, the shielding layer and the first solid electrolyte layer form the concave portion.