mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a compound of formula wherein X represents a CHO, COOH, COOR 2, or a CH 2 OH group, R 2 representing a C 1-5 alkyl group; and R is a group of formula wherein m is 1 or 2; by the isomerization of the corresponding compound of the formula wherein R and X have the same meaning as in formula; said isomerization being performed in the presence of a complex of formula: [Ru(dienyl) 2 H]A wherein dienyl represents a C 5 -C 22 hydrocarbon group comprising a carbon-carbon double bond and a moiety C=C-C -; and A is a weakly or non-coordinating anion. wherein X represents a CHO, COOH, COOR 2, or a CH 2 OH group, R 2 representing a C 1-5 alkyl group; and R is a group of formula wherein m is 1 or 2; by the isomerization of the corresponding compound of the formula wherein R and X have the same meaning as in formula; said isomerization being performed in the presence of a complex of formula: [Ru(dienyl) 2 H]A wherein dienyl represents a C 5 -C 22 hydrocarbon group comprising a carbon-carbon double bond and a moiety C=C-C -; and A is a weakly or non-coordinating anion. dienyl represents a C 5 -C 22 hydrocarbon group comprising a carbon-carbon double bond and a moiety C=C-C -; and A is a weakly or non-coordinating anion.
Method for manufacturing a display device, in particular for an automotive vehicle, comprising - a touchscreen; and - a display element, the touchscreen having a first main extension plane, the display element having a second main extension plane, the first main extension plane and the second main extension plane being parallel, characterized in that - the touchscreen and the display element are positioned with respect to one another by means of a frame element; and in that - the manufacturing method comprises a step in which, after positioning the touchscreen and the display element with respect to the frame element, a seal element is positioned, at least partially, between the touchscreen and the frame element by means of a moulding step. - a touchscreen; and - a display element, - the touchscreen and the display element are positioned with respect to one another by means of a frame element; and in that - the manufacturing method comprises a step in which, after positioning the touchscreen and the display element with respect to the frame element, a seal element is positioned, at least partially, between the touchscreen and the frame element by means of a moulding step.
Bodywork of a motor vehicle comprising side members (2, 3) and a rear axle construction (12, 22) which is connected to the bodywork, the rear axle construction having means (16, 17, 27, 28, 29, 30, 31, 32) for attaching the rear axle construction (12, 22) to the bodywork and having a suspension (18, 20, 33, 34), and the rear axle construction being configured as a torsion-beam axle or as a multi-link axle, characterised in that the side members (2, 3) have means (4, 5, 6, 7, 8, 9, 10, 11) for receiving the attachment means and the suspension (18, 20, 33, 34) of a torsion-beam axle and of a multi-link axle, wherein the suspension (18, 20, 33, 34) of the torsion-beam axle and of the multi-link axle are receivable by the means receiving the suspension (18, 20, 33, 34), and wherein spring strut receiving cups or spring-damper receiving cups (10, 11) are provided in the side member (2, 3) of the bodywork to receive the suspension (18, 20, 33, 34) of the rear axle construction (12, 22).
A system for imaging tissue comprising: a catheter having a distal end and a proximal end; an ablation member disposed at the distal end of the catheter, the ablation member being connected to an energy source selected from the group consisting of radiofrequency energy, microwave energy, electrical energy, electromagnetic energy, cryoenergy, laser energy, ultrasound energy, acoustic energy, chemical energy, and thermal energy, and configured to ablate tissue; a light source located outside the catheter, the light source being configured to excite native reduced form of nicotinamide adenine dinucleotide (NADH) in the ablated tissue; a fluorescence sensor located outside the catheter; and a fiber optic bundle being connected to the light source and to the fluorescence sensor that is configured to pass the light from the light source to the ablated tissue to excite NADH in the ablated tissue and to detect NADH fluorescence from the ablated tissue illuminated by light from the light source and to pass the fluorescence to the NADH fluorescence sensor to monitor in real-time when the complete ablation of desired tissue has been achieved. a catheter having a distal end and a proximal end; an ablation member disposed at the distal end of the catheter, the ablation member being connected to an energy source selected from the group consisting of radiofrequency energy, microwave energy, electrical energy, electromagnetic energy, cryoenergy, laser energy, ultrasound energy, acoustic energy, chemical energy, and thermal energy, and configured to ablate tissue; a light source located outside the catheter, the light source being configured to excite native reduced form of nicotinamide adenine dinucleotide (NADH) in the ablated tissue; a fluorescence sensor located outside the catheter; and a fiber optic bundle being connected to the light source and to the fluorescence sensor that is configured to pass the light from the light source to the ablated tissue to excite NADH in the ablated tissue and to detect NADH fluorescence from the ablated tissue illuminated by light from the light source and to pass the fluorescence to the NADH fluorescence sensor to monitor in real-time when the complete ablation of desired tissue has been achieved.
Method for managing at least one first rotary processing unit of a production line for items obtained by blow moulding, in which a first mobile element of said first rotary processing unit is driven in rotation, characterized in that it comprises a controlled stopping phase including the following steps: - determining a first setpoint angular stopping position for the first mobile element relative to said first rotary processing unit, and - ordering the first mobile element to stop in such a way that the first mobile element stops in said previously determined first setpoint angular stopping position. - determining a first setpoint angular stopping position for the first mobile element relative to said first rotary processing unit, and - ordering the first mobile element to stop in such a way that the first mobile element stops in said previously determined first setpoint angular stopping position.
A Torus-Quorum based directional channel rendezvous method for a receiver and a sender, each having directional antennas, comprising the following steps: a directional antenna of the sender and a directional antenna of the receiver each initially pointing in an arbitrary direction are rotated to positions to face the directional antenna of the other of the sender and the receiver mutually in one Torus-Quorum system cycle through a rotation closure attribute of a Torus-Quorum system to realize directional rendezvous of the directional antennas; and the receiver and the sender switch to a same available channel among the channels locally available to each of the receiver and the sender according to selected frequency hopping sequences to realize channel rendezvous in a process comprising the following steps: the receiver and the sender respectively select the smallest prime numbers P A and P B not smaller than the channel numbers |C A | and |C B | locally available to the receiver and sender respectively as a frequency hopping period of the receiver and the sender; if P A =|C A | or/and P B =|C B |, the receiver and/or sender accesses all locally available channels in increasing order; if P A >|C A | or/and P B >|C B |, the receiver or/and the sender accesses all locally available channels in increasing order in each cycle and then randomly supplements P A -|C A | and/or P B -|C B | channels respectively, wherein C A is an available channel set of the receiver and C B is an available channel set of the sender. the receiver and the sender respectively select the smallest prime numbers P A and P B not smaller than the channel numbers |C A | and |C B | locally available to the receiver and sender respectively as a frequency hopping period of the receiver and the sender; if P A =|C A | or/and P B =|C B |, the receiver and/or sender accesses all locally available channels in increasing order; if P A >|C A | or/and P B >|C B |, the receiver or/and the sender accesses all locally available channels in increasing order in each cycle and then randomly supplements P A -|C A | and/or P B -|C B | channels respectively, wherein C A is an available channel set of the receiver and C B is an available channel set of the sender.
A bidirectional radio frequency, RF, communication unit; comprising: a transmit modem; a receive modem; an RF transceiver circuit; a coupling waveguide arrangement; and an antenna; wherein: the antenna is used for both receiving and transmitting; the RF transceiver circuit transmits and receives at RF frequencies greater than or equal to 50 GHz; at least the majority of the RF transceiver circuit is provided on a single multilayer pcb; the coupling waveguide arrangement is provided in the form of respective transmit and receive waveguides provided within a diplexer that has a common antenna coupling port and is in the form of a block; the multilayer pcb and the diplexer form a laminated structure; characterised in that transition interfaces between the RF transceiver circuit and the waveguide comprise one or more buried layer probe elements in a buried layer of the multilayer pcb. a transmit modem; a receive modem; an RF transceiver circuit; a coupling waveguide arrangement; and an antenna; wherein: the antenna is used for both receiving and transmitting; the RF transceiver circuit transmits and receives at RF frequencies greater than or equal to 50 GHz; at least the majority of the RF transceiver circuit is provided on a single multilayer pcb; the coupling waveguide arrangement is provided in the form of respective transmit and receive waveguides provided within a diplexer that has a common antenna coupling port and is in the form of a block; the multilayer pcb and the diplexer form a laminated structure; characterised in that transition interfaces between the RF transceiver circuit and the waveguide comprise one or more buried layer probe elements in a buried layer of the multilayer pcb. the antenna is used for both receiving and transmitting; the RF transceiver circuit transmits and receives at RF frequencies greater than or equal to 50 GHz; at least the majority of the RF transceiver circuit is provided on a single multilayer pcb; the coupling waveguide arrangement is provided in the form of respective transmit and receive waveguides provided within a diplexer that has a common antenna coupling port and is in the form of a block; the multilayer pcb and the diplexer form a laminated structure; characterised in that transition interfaces between the RF transceiver circuit and the waveguide comprise one or more buried layer probe elements in a buried layer of the multilayer pcb.
A network device, comprising: a hardware component; a first device receiver operably connected to the hardware component via a first hardware component connection and adapted to receive a device; a second device receiver operably connected to the hardware component via a second hardware component connection, a contact array (104.6) adapted to: operably connect to a first device using only a first portion (104.8) of the contact array; and operably connect to a second device using the first portion of the contact array and a second portion (104.10) of the contact array; and a combiner adapted to: be reversibly inserted in the first device receiver; and while inserted in the first device receiver: operably connect the first portion of the contact array to the second portion of the contact array, wherein the first device receiver is adapted to reversibly reallocate the first hardware component connection to the second device receiver. a hardware component; a first device receiver operably connected to the hardware component via a first hardware component connection and adapted to receive a device; a second device receiver operably connected to the hardware component via a second hardware component connection, a contact array (104.6) adapted to: operably connect to a first device using only a first portion (104.8) of the contact array; and operably connect to a second device using the first portion of the contact array and a second portion (104.10) of the contact array; and operably connect to a first device using only a first portion (104.8) of the contact array; and operably connect to a second device using the first portion of the contact array and a second portion (104.10) of the contact array; and a combiner adapted to: be reversibly inserted in the first device receiver; and while inserted in the first device receiver: operably connect the first portion of the contact array to the second portion of the contact array, be reversibly inserted in the first device receiver; and while inserted in the first device receiver: operably connect the first portion of the contact array to the second portion of the contact array, wherein the first device receiver is adapted to reversibly reallocate the first hardware component connection to the second device receiver.
An adjustable stop assembly comprising: a body; a cam with a hook portion, the cam being movable into a locked position in which the hook portion is secured to a rail portion of a rail of a power tool and an unlocked position in which the hook portion is spaced from the rail; a lock knob configured to interact with the cam to provide a locked state in which the cam is in the locked position and an unlocked state in which the cam is in the unlocked position; an adjustable rod extending outward from a first side of the body by a first extension amount and a second side of the body by a second extension amount; and an adjusting knob configured to move the adjustable rod to adjust the first extension amount and the second extension amount, the adjusting knob being disposed within the body such that a minor sector portion of the adjusting knob is exposed by an opening in the body and a major sector portion of the adjusting knob is covered by the body at a given instance. a body; a cam with a hook portion, the cam being movable into a locked position in which the hook portion is secured to a rail portion of a rail of a power tool and an unlocked position in which the hook portion is spaced from the rail; a lock knob configured to interact with the cam to provide a locked state in which the cam is in the locked position and an unlocked state in which the cam is in the unlocked position; an adjustable rod extending outward from a first side of the body by a first extension amount and a second side of the body by a second extension amount; and an adjusting knob configured to move the adjustable rod to adjust the first extension amount and the second extension amount, the adjusting knob being disposed within the body such that a minor sector portion of the adjusting knob is exposed by an opening in the body and a major sector portion of the adjusting knob is covered by the body at a given instance.
Method for processing an image, the method, comprising: providing a set of key points from the image; describing location information of the set of key points in form of a binary matrix; scanning the binary matrix according to a pre-determined order, thereby creating a new representation of the location information of the set of key points beginning with key points located at or around a region of interest at or around the center of the image towards key points located at a periphery of the image or vice versa, wherein the new representation of the location information of the set of key points takes the form of another binary matrix that is created column-wise or row-wise; and compressing the new representation of the location information of the set of key points, wherein the another binary matrix is partitioned into macro-blocks of different size, wherein macro-blocks carrying location information of key points located at or around a region of interest of the image have a larger size than macro-blocks carrying location information of key points located at a periphery of the image, and wherein entropy coding is applied to skip-Macroblocks information of the another binary matrix and to non-empty macro-blocks of the another binary matrix to encode a sequence indicating empty macro-blocks of the another binary matrix. providing a set of key points from the image; describing location information of the set of key points in form of a binary matrix; scanning the binary matrix according to a pre-determined order, thereby creating a new representation of the location information of the set of key points beginning with key points located at or around a region of interest at or around the center of the image towards key points located at a periphery of the image or vice versa, wherein the new representation of the location information of the set of key points takes the form of another binary matrix that is created column-wise or row-wise; and compressing the new representation of the location information of the set of key points, wherein the another binary matrix is partitioned into macro-blocks of different size, wherein macro-blocks carrying location information of key points located at or around a region of interest of the image have a larger size than macro-blocks carrying location information of key points located at a periphery of the image, and wherein entropy coding is applied to skip-Macroblocks information of the another binary matrix and to non-empty macro-blocks of the another binary matrix to encode a sequence indicating empty macro-blocks of the another binary matrix.
Air spring strut consisting of an air spring and a damper for spring suspension and damping of vibrations of a motor vehicle chassis, which air spring strut is clamped between the body and the chassis of the motor vehicle, with an air spring bellows which is composed of elastomeric material, is clamped in an airtight manner between an air spring cover and an air spring rolling piston and rolls on the air spring rolling piston with the formation of a rolling fold, with an outer guide enclosing the air spring bellows in a sleeve-shaped manner, and an expansion bellows which protects the rolling fold from dirt accumulations and which is fastened to an end of the outer guide that faces away from the air spring cover, characterized in that ventilation means for ventilating a space surrounded by the expansion bellows are provided, wherein the ventilation means comprise ventilation openings at an end of the expansion bellows that faces the chassis, and further additional ventilation openings are provided in the expansion bellows, said additional ventilation openings assisting an airflow within the expansion bellows in the direction of the chassis, wherein means for controlling the airflow within the expansion bellows are provided in the region of the additional ventilation openings.
A method for conditioning air, said method being carried out by means of a test chamber having a temperature-insulated test space which is capable of being sealed against an environment and serves to receive test material, and a temperature control device for controlling the temperature of the test space, a temperature in a temperature range of -40 °C to +180 °C being established within the test space by means of the temperature control device having a cooling device (10, 40) having a cooling circuit comprising a refrigerant, a heat exchanger disposed in the test space, a compressor, a condenser, a first expansion element and an internal heat exchanger, the internal heat exchanger being connected to a high-pressure side of the cooling circuit upstream of the first expansion element and downstream of the condenser, and to a low-pressure side of the cooling circuit downstream of the heat exchanger and upstream of the compressor, the cooling circuit having a bypass having at least one second expansion element, the bypass being connected to the high-pressure side downstream of the condenser and upstream of the internal heat exchanger, and to the low-pressure side downstream of the heat exchanger and upstream of the internal heat exchanger, characterized in that a controlling system of the temperature control device controls the second expansion element by means of a pressure sensor at the high-pressure side and by means of a temperature sensor at the high-pressure side downstream of the internal heat exchanger in the cooling circuit as a function of a pressure measured at the pressure sensor and of a temperature measured at the temperature sensor.
A passive diffusing gel for semiochemical compositions for dogs and/or cats comprising: - a polysaccharide gel matrix, - a soothing semiochemical composition for dogs and/or cats comprising a mixture of volatile fatty acid derivatives, said volatile fatty acid derivative being a fatty acid ethyl or methyl ester, - a solubilising agent of said semiochemical composition in said gel matrix, - an organic acid with a pKa greater than 3, - optionally, a preservative -optionally, a colouring agent, - optionally, a bittering agent. - a polysaccharide gel matrix, - a soothing semiochemical composition for dogs and/or cats comprising a mixture of volatile fatty acid derivatives, said volatile fatty acid derivative being a fatty acid ethyl or methyl ester, - a solubilising agent of said semiochemical composition in said gel matrix, - an organic acid with a pKa greater than 3, - optionally, a preservative -optionally, a colouring agent, - optionally, a bittering agent.
A GNMT-/- knock-out mouse whose genome comprises a homologous disruption of the Glycine N-methyltransferase (GNMT) gene locus, wherein the disruption results in targeted deletion of nucleotides 547-4875 of SEQ ID No. 8 corresponding to GNMT exons 1-4 and part of exon 5, such that the GNMT-/- knock-out mouse exhibits a phenotype of increased hepatocellular carcinoma susceptibility, relative to a mouse with a wild-type GNMT phenotype.
A central member suitable for use in a socket assembly; said central member comprising at least two through-holes in which at least two pins of a plug are insertable for being electrically connected to a socket function of a base (10, 20) of the socket assembly; said central member being configured for being part of a cover covering an opening in a wall; and said central member being removeably attachable to the base (10, 20), with a rear side of the central member facing a front side of the base (10, 20); wherein the central member is provided with an antenna (66a, 66b), said antenna (66a, 66b) being couplable to a communication module of the base (10, 20), when the central member is attached to the base (10, 20); wherein the central member has a front side which is provided with a recess for receiving a plug, and characterized in that the antenna (66a, 66b) is arranged in an area surrounding said recess; wherein said recess in the front side corresponds with a protrusion at the rear side of the central member, and wherein the antenna (66a, 66b) is arranged in an area surrounding the protrusion; wherein the rear side of the central member is provided with at least one contact terminal (67, 68; 267, 268), such that said antenna (66a, 66b) is automatically electrically connectable to said communication module when the central member is attached to the base (10, 20); wherein the at least one contact terminal (67, 68; 267, 268) on the rear side of the central member is positioned on the protrusion.