mhurhangee/ep-ind-claims huggingface dataset:
Process for the production of an olefinic thermoplastic elastomer, comprising the steps of: - shredding in a shredder without grate atactic polypropylene, so that small blocks of mass not exceeding 1 kg are obtained, - grinding in a mill polyethylene, which is constituted by pre- and post-consumer recycled LDPE/LLDPE, so that flakes of a size not exceeding 16 mm are obtained, - feeding into a further granulator mill equipped with a 16 mm grid 100 parts by weight of said small blocks of atactic polypropylene and 220 to 300 parts by weight of said flakes of polyethylene, so that a mixture of granules of size not greater than 16 mm is obtained, - feeding said mixture at the inlet end of an extruder, in which 35 to 45 parts by weight of a copolymer of isotactic polypropylene and polyethylene are subsequently added, and - extruding said thermoplastic elastomer through an exit die of the extruder. - shredding in a shredder without grate atactic polypropylene, so that small blocks of mass not exceeding 1 kg are obtained, - grinding in a mill polyethylene, which is constituted by pre- and post-consumer recycled LDPE/LLDPE, so that flakes of a size not exceeding 16 mm are obtained, - feeding into a further granulator mill equipped with a 16 mm grid 100 parts by weight of said small blocks of atactic polypropylene and 220 to 300 parts by weight of said flakes of polyethylene, so that a mixture of granules of size not greater than 16 mm is obtained, - feeding said mixture at the inlet end of an extruder, in which 35 to 45 parts by weight of a copolymer of isotactic polypropylene and polyethylene are subsequently added, and - extruding said thermoplastic elastomer through an exit die of the extruder.
Darts games machine having a dartboard assigned to a housing, wherein a computer device having an assigned storage device is arranged in the housing, characterized in that the computer device is coupled to an adjustment device for adjusting the height of the dartboard, wherein at least one measurement for the height of the dartboard is readably stored in the storage device and the distance of the dartboard with respect to a lower edge of the housing is displaceable.
A programmable resistive memory element (100; 200) with multiple resistance states, comprising: an Indium-Gallium-Zinc-Oxide (IGZO) resistive layer (102; 202); a first electrical contact and a second electrical contact (103; 203) disposed on the IGZO resistive layer in a same plane; and a voltage generator (104; 205) coupled to the first and second electrical contacts, characterised in that the voltage generator is constructed and arranged to apply an on-chip thermal treatment to the resistive memory element to adjust a resistance of the resistive memory element, wherein the thermal treatment is performed by applying one or more voltage sweeps to the IGZO resistive layer with an upper voltage limit. an Indium-Gallium-Zinc-Oxide (IGZO) resistive layer (102; 202); a first electrical contact and a second electrical contact (103; 203) disposed on the IGZO resistive layer in a same plane; and a voltage generator (104; 205) coupled to the first and second electrical contacts, characterised in that the voltage generator is constructed and arranged to apply an on-chip thermal treatment to the resistive memory element to adjust a resistance of the resistive memory element, wherein the thermal treatment is performed by applying one or more voltage sweeps to the IGZO resistive layer with an upper voltage limit.
A rigid packet of cigarettes or similar, comprising: a group of cigarettes wrapped in an inner wrapper; and an outer container housing the group of cigarettes and in the form of a polyhedron with six faces: a trapezoïdal top wall and a bottom wall opposite and parallel to each other; and four lateral walls (9, 10, 11) perpendicular to the top and bottom wall (7, 8), and which extend longitudinally to connect the edges of the top wall to corresponding edges of the bottom wall; the packet of cigarettes being characterized in that: the bottom wall is rectangular; and a cross section of the outer container, parallel to the top and bottom wall (7, 8), varies continuously in a longitudinal direction to connect the trapezium of the top wall to the rectangle of the bottom wall. a group of cigarettes wrapped in an inner wrapper; and an outer container housing the group of cigarettes and in the form of a polyhedron with six faces: a trapezoïdal top wall and a bottom wall opposite and parallel to each other; and four lateral walls (9, 10, 11) perpendicular to the top and bottom wall (7, 8), and which extend longitudinally to connect the edges of the top wall to corresponding edges of the bottom wall; the packet of cigarettes being characterized in that: the bottom wall is rectangular; and a cross section of the outer container, parallel to the top and bottom wall (7, 8), varies continuously in a longitudinal direction to connect the trapezium of the top wall to the rectangle of the bottom wall. the bottom wall is rectangular; and a cross section of the outer container, parallel to the top and bottom wall (7, 8), varies continuously in a longitudinal direction to connect the trapezium of the top wall to the rectangle of the bottom wall.
A container transporter comprising: - a side wall extending in a longitudinal direction of the container transporter, - driven transport rollers which only transport in the longitudinal direction and which protrude upward from a loading surface of the container transporter, and - a transfer device for transferring a piece of cargo (50, 51) arranged on a loading surface of a transport vehicle or a dolly arranged approximately at an identical elevation, wherein the loading surface is provided with dolly rollers and wherein the piece of cargo is in particular a container, - wherein the transfer device includes a transfer arm (9, 9'), a transfer drive and at least one transfer roller that is drivable by the transfer drive and pivotable from the portion of the loading surface of the container transporter into an activated position, wherein - wherein the transfer device is configured so that the transfer roller is driven in rotation either in the desired transfer direction for the cargo (50, 51) or against the desired transfer direction for the cargo (50, 51) depending on the transfer roller in the activated position directly engaging a base of the cargo item (50, 51) or one of the dolly rollers. - a side wall extending in a longitudinal direction of the container transporter, - driven transport rollers which only transport in the longitudinal direction and which protrude upward from a loading surface of the container transporter, and - a transfer device for transferring a piece of cargo (50, 51) arranged on a loading surface of a transport vehicle or a dolly arranged approximately at an identical elevation, wherein the loading surface is provided with dolly rollers and wherein the piece of cargo is in particular a container, - wherein the transfer device includes a transfer arm (9, 9'), a transfer drive and at least one transfer roller that is drivable by the transfer drive and pivotable from the portion of the loading surface of the container transporter into an activated position, wherein - wherein the transfer device is configured so that the transfer roller is driven in rotation either in the desired transfer direction for the cargo (50, 51) or against the desired transfer direction for the cargo (50, 51) depending on the transfer roller in the activated position directly engaging a base of the cargo item (50, 51) or one of the dolly rollers.
A compound of formula la, Ib or Ic: wherein: n is 1 or 2; R N is H or Me; R 1 is optionally one or more halo or methyl groups; R 2a and R 2b are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 2c and R 2d (if present) are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 3a and R 3b are independently selected from H and Me; R 4a is selected from OH, -NH 2, -C(=O)NH 2, and -CH 2 OH; R 4b is either H or Me; R 5 is either H or Me; A is either (i) where R 6a is -OQ, where Q is selected from C 1-4 alkyl, benzyl, phenyl, C 1-4 fluoroalkyl, C 5-6 heteroaryl, -CH 2 -C 5-6 heteroaryl, C 4-6 heterocyclyl, and -CH 2 -C 4-6 heterocyclyl; or (ii) where X is selected from CH 2, NH and O, one of R 7a and R 7b is selected from Cl and ethoxy and the other of R 7a and R 7b is H. n is 1 or 2; R N is H or Me; R 1 is optionally one or more halo or methyl groups; R 2a and R 2b are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 2c and R 2d (if present) are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 3a and R 3b are independently selected from H and Me; R 4a is selected from OH, -NH 2, -C(=O)NH 2, and -CH 2 OH; R 4b is either H or Me; R 5 is either H or Me; A is either (i) where R 6a is -OQ, where Q is selected from C 1-4 alkyl, benzyl, phenyl, C 1-4 fluoroalkyl, C 5-6 heteroaryl, -CH 2 -C 5-6 heteroaryl, C 4-6 heterocyclyl, and -CH 2 -C 4-6 heterocyclyl; or (ii) where X is selected from CH 2, NH and O, one of R 7a and R 7b is selected from Cl and ethoxy and the other of R 7a and R 7b is H. (i) where R 6a is -OQ, where Q is selected from C 1-4 alkyl, benzyl, phenyl, C 1-4 fluoroalkyl, C 5-6 heteroaryl, -CH 2 -C 5-6 heteroaryl, C 4-6 heterocyclyl, and -CH 2 -C 4-6 heterocyclyl; or (ii) where X is selected from CH 2, NH and O, one of R 7a and R 7b is selected from Cl and ethoxy and the other of R 7a and R 7b is H.
Apparatus for detecting properties of a fluid to be examined, comprising a light source for emitting a plurality of light beams, of which one of the light beams is a measuring beam which is intended to pass through the fluid, and another light beam is a reference beam which is intended to bypass the fluid, comprising a movable cover device arranged downstream of the light source, which device is intended to cover the light beams and which is arranged so as to be transferrable between a first position which exposes the measuring beam and covers the reference beam and a second position which covers the measuring beam and exposes the reference beam and comprising a light detector arranged downstream of the cover device, the cover device being arranged so as to be transferrable into a third position (P3, P3', P3") in which the light beams emitted by the light source are covered differently in comparison to the first position and to the second position of the cover device, whereby an output parameter of the light detector influenced by the light beams in the third position (P3, P3', P3") differs from the output parameter of the light detector in the first position and in the second position of the cover device, characterised in that a processing unit arranged downstream of the light detector is provided, which unit is designed to detect a blockage in the movement of the cover device by comparing the output parameters of the light detector in the first position, the second position and the third position (P3, P3', P3") of the cover device.
A blind for covering an architectural opening, comprising: a variable-radius-wrap tilt station including first and second eccentrics (350, 352) fixed relative to each other and rotatable about an axis of rotation, the first eccentric comprising a radially-extending web and the second eccentric comprising a radially-extending web; a tilt rod; a plurality of slats (14b, 14t), divided into a set of first slats and a set of second slats, said first and second slats alternating with each other; and first and second ladder tapes, each of said ladder tapes defining front and rear tilt cables (16ar, 16af, 16br, 16bf), said first ladder tape being attached to said first eccentric and to the front and rear of said first slats, and said second ladder tape being attached to said second eccentric and to the front and rear of said second slats, wherein rotation of said tilt rod is configured to cause rotation of said eccentrics (350, 352) and movement of said slats from a first position in which the upper and lower adjacent slats of each pair are stacked against each other in a double pitch open position to a second position in which the pairs of upper and lower slats are in a tilted closed position. a variable-radius-wrap tilt station including first and second eccentrics (350, 352) fixed relative to each other and rotatable about an axis of rotation, the first eccentric comprising a radially-extending web and the second eccentric comprising a radially-extending web; a tilt rod; a plurality of slats (14b, 14t), divided into a set of first slats and a set of second slats, said first and second slats alternating with each other; and first and second ladder tapes, each of said ladder tapes defining front and rear tilt cables (16ar, 16af, 16br, 16bf), said first ladder tape being attached to said first eccentric and to the front and rear of said first slats, and said second ladder tape being attached to said second eccentric and to the front and rear of said second slats, wherein rotation of said tilt rod is configured to cause rotation of said eccentrics (350, 352) and movement of said slats from a first position in which the upper and lower adjacent slats of each pair are stacked against each other in a double pitch open position to a second position in which the pairs of upper and lower slats are in a tilted closed position.
An image collector device comprising a sensor arranged on a circuit board, a lens, and a lens holder, said lens being mounted in said lens holder, wherein a sensor space, in which said sensor is arranged, is formed between said lens and said circuit board, said image collector device further comprising a sealing device comprising a first end, a second end, a resilient circumferential wall portion extending between said first and second ends (9, 10), and an end wall arranged at said first end, an opening being formed in said end wall, wherein an end wall portion surrounding said opening is flexible, wherein said sealing device is arranged in said sensor space, said circumferential wall portion of said sealing device being arranged around said sensor and sealing said sensor space, wherein said circumferential wall portion is compressed in a direction along said sensor space between said lens and said circuit board, and wherein said opening in said end wall sealingly encloses said lens, characterised in that said lens comprises an outer thread, and said lens holder comprises an inner thread, said lens being threadedly engaged in said lens holder, wherein said end wall portion surrounding said opening is arranged between two adjacent flanks (19, 20) of said outer thread.
Method for controlling the formation of a fibrous web of a fibre or paper production process, which consists of a plurality of successive individual process stages in which controllable chemical and/or physical processes or process steps take place as a function of measured values, in which the substances required to form the fibrous web are treated, combined and/or dewatered, in which at least some of the measured values are recorded inline and used directly or indirectly to control the formation and at least the manipulated variables of the individual processes or processes in the overall process which have a relevant influence on the formation are formed as a function of definable secondary conditions, characterised in that the manipulated variables are formed as a function of definable cost functions and the costs are minimised by means of the cost function via an optimisation algorithm while complying with the constraints.
A display apparatus comprising a malleable display member and a control unit provided at one end of the display member, the display member being in the form of a strip of a size suitable to be positioned around a limb of a user, in which the display member is a strip or band of thin metal or plastic and which is initially axially straight and transversely concave; characterised in that controls in the form of touch-sensitive areas are provided on the display member.
Reach truck having two wheel arms (2a, 2b) which are arranged spaced apart from one another in the transverse direction of the vehicle, wherein a lifting mast is arranged between the two wheel arms (2a, 2b) in such a way that it can be shifted in the longitudinal direction of the vehicle by means of a thrust drive, wherein a fork carrier is arranged on the lifting mast in such a way that said fork carrier can be lowered and raised by means of a lifting drive, wherein an attachment for handling a load is arranged on the fork carrier, characterized in that the reach truck has a sensor device with which a load which is handled by the attachment and/or protrusion of the load or of the attachment into the outer contour of the wheel arms (2a; 2b) is detected, and the sensor device is operatively connected to a control device which controls the thrust drive and the lifting drive, wherein the control device is embodied in such a way that the thrust drive and the lifting drive are actuated as a function of the control device in such a way that a movement of the thrust drive and of the lifting drive is stopped in such a way that a collision of the load and/or of the attachment with a wheel arm (2a; 2b) or with both wheel arms (2a; 2b) is prevented.
Measuring system comprising at least one pulsed single-side light sensor with at least an IR- or an UV-transmitter and an IR- or an UV-receiver for receiving the pulsed IR- or UV-light reflected from a moving object, characterized in that for speed measurement of the moving object, the single-side light sensor having at least three IR- or UV-light receiver (1.1, 1.2, 1.3) and two alternately arranged there between IR- or UV-transmitter (2.1), wherein at the beginning of the measuring path of the single-side light sensor an IR- or UV-receiver (1.1) and at a distance in the moving direction of the object thereto the IR- or UV-transmitter (2.1) are arranged parallel to the reference plane or the road, wherein the IR- or the UV-transmitter (2.1) are in connection with a pulse generator, which is such arranged that it sends periodically pulses in addition clocked in an on- and off-phase (t1, t2), wherein the off phase is a temporal multiple of the on-phase, wherein with each IR- or UV-receiver (1.1, 1.2,..), an amplifier (V1, V2,..) and an evaluation circuit are connected, which are arranged such that they evaluates the pulsed and clocked useful light signal by selection of the pulse pattern, the ratio of the pulse sending sequence and blanking time and by an increase or decrease in the amplitude of the useful signal, and wherein for the attenuation of extraneous light, the IR- or UV-receiver (1.1, 1.2,:) is mounted at the end within a tube and the tube is designed with a length extension of more than 5 times of the inner tube diameter and in the optically relevant interior with a rough or matt surface.
Apparatus for operating a pneumatic system, such as an air suspension installation in vehicles, comprising - a pressure source, - a pressure chamber, - a main line, which connects the pressure source to the pressure chamber, - a vent line, which connects the main line and the environment to one another, and - a vent valve, which is arranged in the vent line and which, in a first state, closes the vent line and, in a second state, through-connects the vent line, wherein the vent valve is embodied as a pressure-relieved valve for venting the pressure chamber or the pneumatic system, characterized in that the vent valve is designed as a pressure-relieved solenoid valve and a control unit is connected to the solenoid valve by means of a signal line in such a way that the stroke height of a valve element can be adjusted in order to control the rate of flow and the switching speed of the valve element is influenced, in particular restricted, in such a way as to reduce the discharge noise. - a pressure source, - a pressure chamber, - a main line, which connects the pressure source to the pressure chamber, - a vent line, which connects the main line and the environment to one another, and - a vent valve, which is arranged in the vent line and which, in a first state, closes the vent line and, in a second state, through-connects the vent line,
A processor-based system, comprising: a storage encoding one or more processor-executable routines, wherein the routines, when executed cause acts to be performed comprising: receiving anatomic information comprising at least a location and topology of a narrowing of a coronary blood vessel by Coronary Computed Tomography Angiography (CCTA); generating or acquiring blood flow information comprising at least flow information corresponding to one or more vessels proximal to the narrowing, said blood flow information comprising an estimation of coronary blood flow determined using ultrasound; and estimating a myocardial fractional flow reserve based at least on the anatomic information and the blood flow information by providing a computational fluid dynamics model that computes a pressure differential across a stenotic lesion, said coronary blood flow determined by ultrasound being used as input to the CFD model, comprising a flow boundary condition used in the CFD model; a memory configured to encode the one or more processor-executable routines prior to execution; and a processing component configured to access and execute the one or more routines when encoded by the memory. a storage encoding one or more processor-executable routines, wherein the routines, when executed cause acts to be performed comprising: receiving anatomic information comprising at least a location and topology of a narrowing of a coronary blood vessel by Coronary Computed Tomography Angiography (CCTA); generating or acquiring blood flow information comprising at least flow information corresponding to one or more vessels proximal to the narrowing, said blood flow information comprising an estimation of coronary blood flow determined using ultrasound; and estimating a myocardial fractional flow reserve based at least on the anatomic information and the blood flow information by providing a computational fluid dynamics model that computes a pressure differential across a stenotic lesion, said coronary blood flow determined by ultrasound being used as input to the CFD model, comprising a flow boundary condition used in the CFD model; receiving anatomic information comprising at least a location and topology of a narrowing of a coronary blood vessel by Coronary Computed Tomography Angiography (CCTA); generating or acquiring blood flow information comprising at least flow information corresponding to one or more vessels proximal to the narrowing, said blood flow information comprising an estimation of coronary blood flow determined using ultrasound; and estimating a myocardial fractional flow reserve based at least on the anatomic information and the blood flow information by providing a computational fluid dynamics model that computes a pressure differential across a stenotic lesion, said coronary blood flow determined by ultrasound being used as input to the CFD model, comprising a flow boundary condition used in the CFD model; a memory configured to encode the one or more processor-executable routines prior to execution; and a processing component configured to access and execute the one or more routines when encoded by the memory.