mhurhangee/ep-ind-claims huggingface dataset:
Kraft paper having a grammage according to ISO 536 in the range from 60 g/m 2 to 120 g/m 2, in particular from 70 g/m 2 to 110 g/m 2, a density in the range from 680 kg/m 3 to 720 kg/m 3 and a tensile strength index in machine direction according to ISO 1924-3 between 79 kNm/kg and 98 kNm/kg, which kraft paper optionally has a coating and/or an auxiliary element on at least one side, characterised in that the kraft paper is made from a pulp with an average fibre length of the pulp of from 2.2 mm to 2.7 mm with a minimum content of pulp in the kraft paper of at least 96 wt.%, preferably at least 97 wt.%, and in that a pore volume of the uncoated kraft paper measured by mercury porosimetry according to ISO 15901-1 is from 200 μl/g to 220 ml/g, in that, in thickness direction of the paper, there are formed regions of different porosity from one another measured by mercury porosimetry according to ISO 15901-1, and at least one region has pores with a pore diameter less than or equal to 0.3 μm and in that an average value of the pore volumes of this region or these regions is smaller than or equal to 5.5 μl/g measured by mercury porosimetry according to ISO 15901-1.
A compound of formula (Ib): wherein, R1 is phenyl-C 1 -C 6 alkyl, or C 3 -C 10 cycloalkyl-C 1 -C 6 alkyl, wherein phenyl is unsubstituted or substituted with one, two or three substituents independently selected from halogen, nitro, hydroxyl, amino, cyano, C 1 -C 6 alkyl, C 1 -C 6 alkoxy and C 1-6 haloalkyl; and wherein alkyl and cycloalkyl may be optionally substituted with hydroxyl, oxo or amino, or optionally spaced by -O-, -S-, -NH-, -COO-, or -CONH-; each R2 is independently hydrogen, hydroxyl, halogen, C 1 -C 6 alkoxy, C 1 -C 6 alkyl, C 1-6 haloalkyl, amino, nitro, cyano or alkylacyl; R6 is hydrogen or C 1 -C 6 alkyl; R7 is C 1 -C 6 alkyl, phenyl-C 1 -C 6 alkyl, wherein phenyl is optionally substituted with one, two or three hydroxyl, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, C 1-6 haloalkyl, amino, halogen, nitro, cyano, or alkylacyl; and wherein alkyl may be substituted with hydroxyl, O-(C 1 -C 4)-alkyl, oxo, amino, NH-(C 1 -C 4)-alkyl or N-[(C 1 -C 6)-alkyl] 2, or optionally spaced by -O-, -S-, -NH-, -COO-, or -CONH-; and n is 0, 1, 2 or 3, or optical isomers, pharmaceutically acceptable salts, solvates or hydrates thereof. R1 is phenyl-C 1 -C 6 alkyl, or C 3 -C 10 cycloalkyl-C 1 -C 6 alkyl, wherein phenyl is unsubstituted or substituted with one, two or three substituents independently selected from halogen, nitro, hydroxyl, amino, cyano, C 1 -C 6 alkyl, C 1 -C 6 alkoxy and C 1-6 haloalkyl; and wherein alkyl and cycloalkyl may be optionally substituted with hydroxyl, oxo or amino, or optionally spaced by -O-, -S-, -NH-, -COO-, or -CONH-; each R2 is independently hydrogen, hydroxyl, halogen, C 1 -C 6 alkoxy, C 1 -C 6 alkyl, C 1-6 haloalkyl, amino, nitro, cyano or alkylacyl; R6 is hydrogen or C 1 -C 6 alkyl; R7 is C 1 -C 6 alkyl, phenyl-C 1 -C 6 alkyl, wherein phenyl is optionally substituted with one, two or three hydroxyl, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, C 1-6 haloalkyl, amino, halogen, nitro, cyano, or alkylacyl; and wherein alkyl may be substituted with hydroxyl, O-(C 1 -C 4)-alkyl, oxo, amino, NH-(C 1 -C 4)-alkyl or N-[(C 1 -C 6)-alkyl] 2, or optionally spaced by -O-, -S-, -NH-, -COO-, or -CONH-; and n is 0, 1, 2 or 3, or optical isomers, pharmaceutically acceptable salts, solvates or hydrates thereof.
A compression bandaging system comprising: a) an inner skin facing, elongated, elastic bandage comprising: (i) an elongated, elastic substrate, and (ii) an elongated layer of foam, said foam layer being affixed to a face of said substrate and extending 33% or more across said face of substrate in transverse direction and 67% or more across said face of substrate in longitudinal direction; and b) an outer, elongated, self-adhering elastic bandage; said bandage having a compressive force when extended and comprising a woven, knitted or nonwoven bandage comprising a plurality of generally longitudinally extending elastic yarns in the woven, knitted or nonwoven structure, said bandage being coated or impregnated with a polymer binder and said bandage having a stretch capability of 75% at most in the longitudinal direction as determined in accordance with the Stretch Testing Procedure as described in the Description under the section entitled Test Methods; wherein, in use, said foam layer of the inner bandage faces the skin and the outer bandage overlies the inner bandage, and wherein the inner and outer bandages are configured and adapted such that in use said bandages remain adhered to one another under elastic extension. a) an inner skin facing, elongated, elastic bandage comprising: (i) an elongated, elastic substrate, and (ii) an elongated layer of foam, said foam layer being affixed to a face of said substrate and extending 33% or more across said face of substrate in transverse direction and 67% or more across said face of substrate in longitudinal direction; and (i) an elongated, elastic substrate, and (ii) an elongated layer of foam, said foam layer being affixed to a face of said substrate and extending 33% or more across said face of substrate in transverse direction and 67% or more across said face of substrate in longitudinal direction; and b) an outer, elongated, self-adhering elastic bandage; said bandage having a compressive force when extended and comprising a woven, knitted or nonwoven bandage comprising a plurality of generally longitudinally extending elastic yarns in the woven, knitted or nonwoven structure, said bandage being coated or impregnated with a polymer binder and said bandage having a stretch capability of 75% at most in the longitudinal direction as determined in accordance with the Stretch Testing Procedure as described in the Description under the section entitled Test Methods;
An onboard device for receiving a signal s(t) coming from a transmitting aircraft at a distance d from the device, said signal s(t) resulting from the combination of a plurality of propagation paths, one of the paths corresponding to the main echo of the transmitted signal, said device comprising: an equalizer of processing depth T; and characterized in that it comprises means for estimating the distance D covered by the second path; means for deducing therefrom a delay value τ associated therewith; means for estimating when τ is greater than or equal to T the interfering signal associated with the main echo and for reducing the contribution of said signal to the total level of interference received.
An electric scooter, comprising: a chassis that includes an electric battery, a controller, and one or more external charging ports; a deck disposed on top of the chassis; a steering tube attached to a front wheel fork through the chassis; handlebars supported by the steering tube; a front wheel attached to the front wheel fork; a back wheel attached to a rear of the chassis; a hub motor fixed to the back wheel or front wheel and controlled by the controller; and attachment components that facilitate attachment of the electric scooter to another electric scooter; wherein the attachment components include: a vertical attachment component configured to vertically attach a front portion of the electric scooter to a rear portion of another electric scooter; a vertical reception component configured to facilitate attachment of another electric scooter to a rear portion of the electric scooter; and a lateral attachment component (275, 325)) configured to laterally attach the chassis of the electric scooter to a chassis of another electric scooter. a chassis that includes an electric battery, a controller, and one or more external charging ports; a deck disposed on top of the chassis; a steering tube attached to a front wheel fork through the chassis; handlebars supported by the steering tube; a front wheel attached to the front wheel fork; a back wheel attached to a rear of the chassis; a hub motor fixed to the back wheel or front wheel and controlled by the controller; and attachment components that facilitate attachment of the electric scooter to another electric scooter; wherein the attachment components include: a vertical attachment component configured to vertically attach a front portion of the electric scooter to a rear portion of another electric scooter; a vertical reception component configured to facilitate attachment of another electric scooter to a rear portion of the electric scooter; and a lateral attachment component (275, 325)) configured to laterally attach the chassis of the electric scooter to a chassis of another electric scooter. a vertical attachment component configured to vertically attach a front portion of the electric scooter to a rear portion of another electric scooter; a vertical reception component configured to facilitate attachment of another electric scooter to a rear portion of the electric scooter; and a lateral attachment component (275, 325)) configured to laterally attach the chassis of the electric scooter to a chassis of another electric scooter.
A scooter comprising: a handlebar assembly; a deck; and a pivot assembly that couples the handlebar assembly to the deck, the pivot assembly comprising: a support assembly pivotably coupled to a bracket by a rod, the bracket comprising a rail surface having a first receiving region spaced apart from a second receiving region, an intermediate portion of the rail surface being disposed between the first and second receiving regions, the intermediate portion being disposed a first distance away from the rod, the first distance being greater than a distance between the rod and the first or second receiving regions; a knob coupled to a pin by a collar, the knob configured to slide the pin radially away from the rod; a brace portion extending across a face of the support assembly; and a shaft passing through the collar, a first end of the shaft being attached to the knob, a second end of the shaft being opposite the first end, characterised in that the knob is configured so that rotation of the knob in a first rotational direction moves the second end into engagement with the brace portion, thereby inhibiting movement of the handlebar assembly relative to the deck. a handlebar assembly; a deck; and a pivot assembly that couples the handlebar assembly to the deck, the pivot assembly comprising: a support assembly pivotably coupled to a bracket by a rod, the bracket comprising a rail surface having a first receiving region spaced apart from a second receiving region, an intermediate portion of the rail surface being disposed between the first and second receiving regions, the intermediate portion being disposed a first distance away from the rod, the first distance being greater than a distance between the rod and the first or second receiving regions; a knob coupled to a pin by a collar, the knob configured to slide the pin radially away from the rod; a brace portion extending across a face of the support assembly; and a shaft passing through the collar, a first end of the shaft being attached to the knob, a support assembly pivotably coupled to a bracket by a rod, the bracket comprising a rail surface having a first receiving region spaced apart from a second receiving region, an intermediate portion of the rail surface being disposed between the first and second receiving regions, the intermediate portion being disposed a first distance away from the rod, the first distance being greater than a distance between the rod and the first or second receiving regions; a knob coupled to a pin by a collar, the knob configured to slide the pin radially away from the rod; a brace portion extending across a face of the support assembly; and a shaft passing through the collar, a first end of the shaft being attached to the knob, a second end of the shaft being opposite the first end, characterised in that the knob is configured so that rotation of the knob in a first rotational direction moves the second end into engagement with the brace portion, thereby inhibiting movement of the handlebar assembly relative to the deck.
A device for processing workpiece sheets, in particular for processing sheets of paper, cardboard or plastic for packaging, comprising a processing station through which the workpiece sheets are transported in succession, at least one changeable tool (2, 10, 18) that is specific to the processing and is moved against the sheet introduced in the processing station to process the sheet, at least one holder (5, 11) on the device side for the changeable tool (2, 10, 18), the holder being adjustable for aligning the changeable tool (2, 10, 18), a central electronic control unit for controlling the device, the control unit having a memory for storing specific setting position data for each individual specific changeable tool (2, 10, 18), electronic digital sensors for determining the current position of the holder (5, 11), which are coupled to the control unit, and digital display devices that are coupled to the control unit and display the target position and the actual position of the holder (5, 11) or of parts coupled thereto, or display the relation of the target position and the actual position for the individual specific changeable tool (2, 10, 18). a processing station through which the workpiece sheets are transported in succession, at least one changeable tool (2, 10, 18) that is specific to the processing and is moved against the sheet introduced in the processing station to process the sheet, at least one holder (5, 11) on the device side for the changeable tool (2, 10, 18), the holder being adjustable for aligning the changeable tool (2, 10, 18), a central electronic control unit for controlling the device, the control unit having a memory for storing specific setting position data for each individual specific changeable tool (2, 10, 18), electronic digital sensors for determining the current position of the holder (5, 11), which are coupled to the control unit, and digital display devices that are coupled to the control unit and display the target position and the actual position of the holder (5, 11) or of parts coupled thereto, or display the relation of the target position and the actual position for the individual specific changeable tool (2, 10, 18).
A medical device for facilitating selection of a pacing vector from among a plurality of pacing vectors for pacing a first chamber of a heart, the device comprising: a plurality of electrodes (40, 42, 44, 48, 50); a signal generator coupled to the plurality of electrodes for delivering pacing pulses to a patient's heart; a sensing module coupled to the plurality of electrodes for sensing cardiac event signals; and a capture detection module coupled to the signal generator and the sensing module and configured to: for each of a plurality of pacing vectors, control the signal generator to deliver a pacing pulse to capture a first heart chamber; determine a first time interval between the pacing pulse and a sensed event in a second heart chamber; determine a capture detection window in response to the determined first time interval; and iteratively decrease a pacing pulse magnitude delivered in the first heart chamber until an event in the second heart chamber is not sensed during the determined capture detection window; and wherein the capture detection module is further configured to lengthen the capture detection window in response to a depolarization of the second heart chamber not being sensed during the determined capture detection window. a plurality of electrodes (40, 42, 44, 48, 50); a signal generator coupled to the plurality of electrodes for delivering pacing pulses to a patient's heart; a sensing module coupled to the plurality of electrodes for sensing cardiac event signals; and a capture detection module coupled to the signal generator and the sensing module and configured to: for each of a plurality of pacing vectors, control the signal generator to deliver a pacing pulse to capture a first heart chamber; determine a first time interval between the pacing pulse and a sensed event in a second heart chamber; determine a capture detection window in response to the determined first time interval; and iteratively decrease a pacing pulse magnitude delivered in the first heart chamber until an event in the second heart chamber is not sensed during the determined capture detection window; and wherein the capture detection module is further configured to lengthen the capture detection window in response to a depolarization of the second heart chamber not being sensed during the determined capture detection window. for each of a plurality of pacing vectors, control the signal generator to deliver a pacing pulse to capture a first heart chamber; determine a first time interval between the pacing pulse and a sensed event in a second heart chamber; determine a capture detection window in response to the determined first time interval; and iteratively decrease a pacing pulse magnitude delivered in the first heart chamber until an event in the second heart chamber is not sensed during the determined capture detection window; and wherein the capture detection module is further configured to lengthen the capture detection window in response to a depolarization of the second heart chamber not being sensed during the determined capture detection window.
Drive facility for a sash frame of a residential roof window, having a driving unit that comprises an electrical drive and a connecting means that can be driven by the same for applying impact to the sash frame in order to open and close the same, and having a mounting console on which the driving unit is arranged and by means of which the driving unit can be attached to a blind frame of the residential roof window, whereby the mounting console comprises, for reproducible positioning on the blind frame, an angle-shaped receptacle for a perfect-fit encompassing of at least one corner region of a horizontal bar of the blind frame, characterised in that the mounting console comprises a receptacle passage comprising two bordering surfaces (51, 52) for a perfect-fit reception, the reception taking place between the bordering surfaces (51, 52), of a locking block of the drive facility that is situated on the blind frame and serves for interlocking the closed sash frame to the blind frame, and possesses interlocking surfaces which are engaged behind during the interlocking of shiftable closing pegs of a lock facility that is attached to the sash frame.
A wireless communication device comprising: a communication interface; and processing circuitry that is coupled to the communication interface, wherein at least one of the communication interface or the processing circuitry configured to: generate a punctured null data packet, NDP, including puncturing of one or more preamble portions therein, wherein the punctured NDP comprises at least one field that includes information to specify a preamble puncturing option of said preamble portions; transmit the punctured NDP to another wireless communication device (118-132, 210-234, 310, 390, 391) via fewer than all of a plurality of sub-channels of a communication channel; and receive an estimate of the communication channel characteristics across an entire bandwidth of the communication channel as feedback from the another wireless communication device, wherein said estimate has been obtained based on the another wireless communication device processing the punctured NDP that is received via the fewer than all of the plurality of sub-channels of the communication channel. a communication interface; and processing circuitry that is coupled to the communication interface, wherein at least one of the communication interface or the processing circuitry configured to: generate a punctured null data packet, NDP, including puncturing of one or more preamble portions therein, wherein the punctured NDP comprises at least one field that includes information to specify a preamble puncturing option of said preamble portions; transmit the punctured NDP to another wireless communication device (118-132, 210-234, 310, 390, 391) via fewer than all of a plurality of sub-channels of a communication channel; and generate a punctured null data packet, NDP, including puncturing of one or more preamble portions therein, wherein the punctured NDP comprises at least one field that includes information to specify a preamble puncturing option of said preamble portions; transmit the punctured NDP to another wireless communication device (118-132, 210-234, 310, 390, 391) via fewer than all of a plurality of sub-channels of a communication channel; and receive an estimate of the communication channel characteristics across an entire bandwidth of the communication channel as feedback from the another wireless communication device, wherein said estimate has been obtained based on the another wireless communication device processing the punctured NDP that is received via the fewer than all of the plurality of sub-channels of the communication channel.
An apparatus, comprising: a sampling probe having a first portion and a second portion, the first portion being configured to penetrate inside a wall of a duct having an inner chamber that is configured to carry a gas stream containing particulate matter therethrough, the gas stream having a particulate matter concentration, the first portion being further configured to divert a sample of the gas stream having the said particulate matter concentration from the inner chamber of the duct to the second portion that extends from the wall of the duct opposite the inner chamber; wherein the second portion of the sampling probe is configured to direct the sample of the gas stream in a first direction, with a second direction corresponding to a direction of the gravitational force of the earth; wherein the gas stream, in use, travels in the duct in a third direction opposite to the direction of the gravitational force of the earth in the inner chamber, the third direction thus being opposite to the second direction; wherein a first ray corresponding to the first direction forms an angle β with a second ray corresponding to the second direction; and wherein the angle β is less than 90 degrees. a sampling probe having a first portion and a second portion, the first portion being configured to penetrate inside a wall of a duct having an inner chamber that is configured to carry a gas stream containing particulate matter therethrough, the gas stream having a particulate matter concentration, the first portion being further configured to divert a sample of the gas stream having the said particulate matter concentration from the inner chamber of the duct to the second portion that extends from the wall of the duct opposite the inner chamber; wherein the second portion of the sampling probe is configured to direct the sample of the gas stream in a first direction, with a second direction corresponding to a direction of the gravitational force of the earth; wherein the gas stream, in use, travels in the duct in a third direction opposite to the direction of the gravitational force of the earth in the inner chamber, the third direction thus being opposite to the second direction; wherein a first ray corresponding to the first direction forms an angle β with a second ray corresponding to the second direction; and wherein the angle β is less than 90 degrees.