mhurhangee/ep-ind-claims huggingface dataset:
Device for holding a probe for putting the inside of the body of patient in communication with the outside, comprising, arranged along a longitudinal axis (X-X') of the device: - at the distal end thereof, means for supporting the device on the body of the patient that extends radially, comprising an axial opening for passage of said probe and comprising a first radial opening communicating with said axial opening, - at the proximal end thereof, means for guiding said probe comprising a second radial opening, - a means for the longitudinal separation of said supporting means and said guidance means, and characterised in that said first radial opening and the second radial opening are substantially diametrically opposed with respect to the longitudinal axis (X-X') of the device. - at the distal end thereof, means for supporting the device on the body of the patient that extends radially, comprising an axial opening for passage of said probe and comprising a first radial opening communicating with said axial opening, - at the proximal end thereof, means for guiding said probe comprising a second radial opening, - a means for the longitudinal separation of said supporting means and said guidance means,
Electrical contact system, in particular for low voltage, with an input contact and with at least one output contact, comprising a contact spring made of wire that is held centrally in the contact system by a holding element, and two contact limbs (14, 16) of approximately the same length extending on both sides of the holding element, wherein the contact limbs (14, 16) make, without application of an elastic preload, an obtuse opening angle between them, wherein a first contact limb is placed against an input contact designed as a first support and the second contact limb is placed against a second insulating support, under expansion of the opening angle, and a first output contact is disposed adjacent to the second contact limb and the contact system is configured as an opening element by the first output contact being disposed on the side of the second contact limb that is facing the holding element and being contacted by the second contact limb when the holding element is in a non-actuated state, or the contact system is configured as a closing element by a second output contact being disposed on the side of the second contact limb that is facing away from the holding element and being contacted by the second contact limb only when the holding element is actuated, characterized in that the contacts (20, 22, 24) are formed as contact pins and, due to the linear movement of an operating plunger of the contact system, the two contact limbs (14, 16) of the contact spring have a tangential frictional or sliding movement on the cylinder outer surface of the fixed contact pins.
A can annular gas turbine engine including a casing, the casing comprising: a compressed air section spanning between a last row of compressor blades of the engine and a first row of turbine blades of the engine, the compressed air section comprising a plurality of openings there through, wherein a single combustor and advanced duct assembly of the engine extends through each opening, wherein each combustor and advanced duct assembly delivers combustion gases along a straight flow path from its combustor to the first row of turbine blades and the engine does not include a first row of turbine vanes; and one top hat associated with each opening configured to enclose the associated combustor and advanced duct assembly and seal the opening, wherein a volume enclosed by the compressed air section is not greater than a volume of a frustum defined at an upstream end by an inner diameter of the casing at the last row of compressor blades and at a downstream end by an inner diameter of the casing at the first row of turbine blades. a compressed air section spanning between a last row of compressor blades of the engine and a first row of turbine blades of the engine, the compressed air section comprising a plurality of openings there through, wherein a single combustor and advanced duct assembly of the engine extends through each opening, wherein each combustor and advanced duct assembly delivers combustion gases along a straight flow path from its combustor to the first row of turbine blades and the engine does not include a first row of turbine vanes; and one top hat associated with each opening configured to enclose the associated combustor and advanced duct assembly and seal the opening, wherein a volume enclosed by the compressed air section is not greater than a volume of a frustum defined at an upstream end by an inner diameter of the casing at the last row of compressor blades and at a downstream end by an inner diameter of the casing at the first row of turbine blades.
Method for the production of a SCR-active zeolite-catalytic converter, characterised in that: an Fe ion-exchanged zeolite is initially subjected to a first temperature treatment in a range between 300 °C and 600 °C in a reducing hydrocarbon atmosphere, whereby the oxidation state of the Fe ions decreases and / or the dispersion of the Fe ions on the zeolite is increased, whereby then the reduced zeolite in an oxidising atmosphere is subjected to a second temperature treatment between 300 °C and 600 °C by which the hydrocarbon radicals and / or carbon radicals are removed by oxidation, and in that the zeolite is calcined to a catalytic converter during the first and second temperature treatments (3 and 4, respectively), characterised by the following process (i) the first temperature treatment is performed in an inert gas atmosphere to which hydrocarbons are fed for reduction and / or, (ii) that the zeolite is pre-processed with the addition of an organic plasticiser to a flowable mass, and in that the first temperature treatment is carried out in an inert gas atmosphere, whereby the organic plasticiser releases hydrocarbons into the inert gas atmosphere by pyrolysis.
A vacuum pump provided with a magnetic bearing device (60,70), the vacuum pump comprising: a first and a second radial magnetic force generation means (71, 72) for supporting a rotor for exhausting gas in a radial direction in a non-contact manner by using a magnetic force; a radial displacement detection means for detecting displacement of the rotor in the radial direction; and a drive motor configured to rotate the rotor, wherein the two radial magnetic force generation means are provided on an outlet side with respect to a center of gravity of the rotor in an exhaust direction of the gas, and characterized in that the first radial magnetic force generation means disposed on an inlet side of the exhaust direction of the gas actively supports the rotor, and the second radial magnetic force generation means disposed on the outlet side of the exhaust direction of the gas passively supports the rotor. a first and a second radial magnetic force generation means (71, 72) for supporting a rotor for exhausting gas in a radial direction in a non-contact manner by using a magnetic force; a radial displacement detection means for detecting displacement of the rotor in the radial direction; and a drive motor configured to rotate the rotor, wherein the two radial magnetic force generation means are provided on an outlet side with respect to a center of gravity of the rotor in an exhaust direction of the gas, and characterized in that the first radial magnetic force generation means disposed on an inlet side of the exhaust direction of the gas actively supports the rotor, and the second radial magnetic force generation means disposed on the outlet side of the exhaust direction of the gas passively supports the rotor. the first radial magnetic force generation means disposed on an inlet side of the exhaust direction of the gas actively supports the rotor, and the second radial magnetic force generation means disposed on the outlet side of the exhaust direction of the gas passively supports the rotor.
An automatic beverage machine, in particular a coffee machine, which by supplying water to a hydraulic component situated in the automatic beverage machine via a fixed water connection prepares a beverage and dispenses it at an outlet of the automatic beverage machine, wherein an externally accessible cartridge holder is provided on the automatic beverage machine, into which a cartridge (21, 21a, 21b, 34a, 34b) may be replaceably inserted, the cartridge (21, 21a, 21b, 34a, 34b) having a cartridge connection (27, 35) on the feed side and a cartridge connection (28, 36) on the discharge side, via which water that is supplied to the automatic beverage machine via the fixed water connection flows through the cartridge (21, 21a, 21b, 34a, 34b) in the inserted state of the cartridge (21, 21a, 21b, 34a, 34b) and is thereby filtered and/or enriched with additives; characterized in that the cartridge holder includes a changeover device that hydraulically connects the fixed water connection to the hydraulic component when a cartridge is not inserted, and partially or completely diverts the water through the cartridge when the cartridge is inserted.
Apparatus for processing data comprising: processing circuitry to perform processing operations; and decoder circuitry to decode program instructions to generate control signals to control said processing circuitry to perform said processing operations; wherein said decoder circuitry is responsive to at least one mixed-element-sized vector arithmetic instruction to generate control signals to control said processing circuitry to perform an arithmetic processing operation upon a first vector of N first source operand elements each of a first bit size and a second vector of M second source operand elements each of a second bit size, said second bit size being greater than said first bit size, the arithmetic processing operation being an operation to generate a destination vector of N destination elements each of the first bit size, in which N and M are positive integer values, N is greater than M, and at least one of said second source operand elements serves as an input operand to said arithmetic processing operation performed with a plurality of different first source operand elements as a respective other input operand, characterized in that N is X ∗ M, where X is an integer greater than one, and each said second source operand element serves as an input operand to said arithmetic operation performed upon a respective disjoint subset of X of said first source operand elements. processing circuitry to perform processing operations; and decoder circuitry to decode program instructions to generate control signals to control said processing circuitry to perform said processing operations; wherein said decoder circuitry is responsive to at least one mixed-element-sized vector arithmetic instruction to generate control signals to control said processing circuitry to perform an arithmetic processing operation upon a first vector of N first source operand elements each of a first bit size and a second vector of M second source operand elements each of a second bit size, said second bit size being greater than said first bit size, the arithmetic processing operation being an operation to generate a destination vector of N destination elements each of the first bit size, in which N and M are positive integer values, N is greater than M, and at least one of said second source operand elements serves as an input operand to said arithmetic processing operation performed with a plurality of different first source operand elements as a respective other input operand, characterized in that N is X ∗ M, where X is an integer greater than one, and each said second source operand element serves as an input operand to said arithmetic operation performed upon a respective disjoint subset of X of said first source operand elements.
A compound represented by Formula 1: in which, R 1 is CH 3 or NH 2, R 2 is hydrogen, halogen, methoxy, or methyl unsubstituted or substituted with one or more halogens; R 3 is hydrogen, halogen, or straight or branched C 1-6 alkyl; R 4 is straight or branched C 1-6 alkyl; and is wherein A 1 is CH or N, and A 2 is NH, CH-R 5, or N-R 5, with the proviso that if A 1 is CH, then A 2 is not CH-R 5, wherein R 5 is independently hydrogen, methyl, hydroxyethyl, acetyl, -NR a R b, morpholinyl, pyrrolidinyl, or wherein R a and R b are independently hydrogen, methyl, acetyl, hydroxyethyl, -(CH 2) 2 OCH 3, or -(CH 2) 2 N(CH 3) 2, and R c and R d are independently hydrogen, methyl, or ethyl, and R 6 is independently hydrogen, methyl, hydroxyethyl, acetyl, or tert-butoxycarbonyl, an optical isomer thereof or a pharmaceutically acceptable salt thereof. R 1 is CH 3 or NH 2, R 2 is hydrogen, halogen, methoxy, or methyl unsubstituted or substituted with one or more halogens; R 3 is hydrogen, halogen, or straight or branched C 1-6 alkyl; R 4 is straight or branched C 1-6 alkyl; and is wherein A 1 is CH or N, and A 2 is NH, CH-R 5, or N-R 5, with the proviso that if A 1 is CH, then A 2 is not CH-R 5, wherein R 5 is independently hydrogen, methyl, hydroxyethyl, acetyl, -NR a R b, morpholinyl, pyrrolidinyl, or wherein R a and R b are independently hydrogen, methyl, acetyl, hydroxyethyl, -(CH 2) 2 OCH 3, or -(CH 2) 2 N(CH 3) 2, and R c and R d are independently hydrogen, methyl, or ethyl, and R 6 is independently hydrogen, methyl, hydroxyethyl, acetyl, or tert-butoxycarbonyl, an optical isomer thereof or a pharmaceutically acceptable salt thereof.
Device for influencing the vertical dynamics of an agricultural vehicle, in particular of an agricultural tractor, having an additional mass (50, 52) which is mounted on the agricultural vehicle and can be moved in the vertical direction by actuating an associated actuator arrangement (32, 34), a sensor device for sensing a surface profile of a roadway section lying ahead, and an electronic control unit which calculates, in accordance with the sensed surface profile, a disruption input which is to be expected for the roadway section lying ahead, in order, by actuating the actuator arrangement (32, 34) by means of the additional mass (50, 52), to execute a compensating movement which reduces the expected disruption input, characterized in that the electronic control unit modifies the calculation of the expected disruption input in accordance with a state variable describing the yielding of the underlying surface driven over with regard to an expected change in the surface profile on account of a compression of the ground caused by the tyre.
Process for preparing a selective hydrogenation catalyst, wherein is provided a catalyst precursor, comprising at least one group VIII metal in the metallic form, and at least one support formed of at least one oxide, said group VIII metal being palladium and said support being alumina, characterised in that a step is performed of contacting the said catalyst precursor in the metallic form, in the liquid phase and in the presence of a reducing and/or inert atmosphere, with a non-polar solvent containing a silicon compound, the said silicon compound is selected from - the silanes containing at least one Si-H bond and at least one Si-C bond corresponding to the formula Si x H y R z, wherein x is an integer within the range 1 to 6, y is an integer within the range 1 to 2x+1, and z is an integer within the range 1 to 2x+1, the sum of y+z being 2x+2, the R radical is a monovalent hydrocarbon radical, identical or different for each valence, and may be selected from a saturated aliphatic radical, an unsaturated aliphatic radical, a cycloalkyl radical, an aryl radical and an arylalkyl radical, - the silanols corresponding to the formula Si x R 2x+1, wherein x is an integer within the range 1 to 6 and R is a radical as defined above, - and the cyclic siloxanes in which the principal -Si-O-Si-O- chain forms a ring and is composed of (R 2 SiO) n units, with n being an integer within the range 3 to 11 and R a radical as defined above. - the silanes containing at least one Si-H bond and at least one Si-C bond corresponding to the formula Si x H y R z, wherein x is an integer within the range 1 to 6, y is an integer within the range 1 to 2x+1, and z is an integer within the range 1 to 2x+1, the sum of y+z being 2x+2, the R radical is a monovalent hydrocarbon radical, identical or different for each valence, and may be selected from a saturated aliphatic radical, an unsaturated aliphatic radical, a cycloalkyl radical, an aryl radical and an arylalkyl radical, - the silanols corresponding to the formula Si x R 2x+1, wherein x is an integer within the range 1 to 6 and R is a radical as defined above, - and the cyclic siloxanes in which the principal -Si-O-Si-O- chain forms a ring and is composed of (R 2 SiO) n units, with n being an integer within the range 3 to 11 and R a radical as defined above.
An antigen recognizing construct which specifically and/or selectively binds to a MAGEA1 antigenic peptide of SEQ ID NO: 133 when said antigen is presented by HLA, wherein said antigen recognizing construct comprises the complementary determining regions (CDRs) CDR1, CDR2 and CDR3 sequences having the amino acid sequence of SEQ ID NO: 49, SEQ ID NO: 50 and SEQ ID NO: 51, respectively, and the CDR1, CDR2 and CDR3 sequences having the amino acid sequence of SEQ ID NO: 55, SEQ ID NO: 56 and SEQ ID NO: 57, respectively, wherein said antigen recognizing construct comprises the respective CDR amino acid sequences with not more than one modified amino acid, wherein said modified amino acid is preferably the first or last amino acid of the respective CDR and the modification is a conservative substitution, and wherein said antigen recognizing construct does not selectively bind any of the peptides of SEQ ID NO: 143 to 152.
A gas cartridge for an inhalation device, comprising a cylindrical pressure tank made of metal and/or plastic which is made of two pieces and comprises a head section as well as a bottom section, which are respectively open on one side and are facing each other with their open sides while being arranged such that they engage into each other and form an overlapping area and are welded to each other, characterized in that the rim edge of the one section (8, 9) that rests against the inner side of the other section (8, 9) is folded over outward, such that the section (8, 9) having the folded over rim edge is designed with a double wall on the front face, for which purpose the beading is 180° and wherein the head section and the bottom section are flush on the outer surface.
Protective cover for a syringe having a syringe body and a proximal syringe outlet, the protective cover being a slip cover that is attachable outside around the syringe body, wherein a further outlet is formed proximally at the slip cover comprising a) an attachment, the slip cover proximally having the attachment, the attachment having proximally inside the slip cover 1) an inside thread and a mechanical stop for a counter stop at the proximal end of the syringe body, or 2) a cone widening towards distal, the inside thread being screwable onto an outside thread of the syringe body, b) connector, c) connector system, d) lumen, the outer periphery of which being made of an elastic material, or e) a cannula, characterised in that the slip cover has a circumferential sealing lip in the distal region. a) an attachment, the slip cover proximally having the attachment, the attachment having proximally inside the slip cover 1) an inside thread and a mechanical stop for a counter stop at the proximal end of the syringe body, or 2) a cone widening towards distal, the inside thread being screwable onto an outside thread of the syringe body, b) connector, c) connector system, d) lumen, the outer periphery of which being made of an elastic material, or e) a cannula,
An ultrasonic welding method comprising: pressing an ultrasonic welding stack against a first workpiece of a first pair of workpieces such that the first workpiece comes into contact with a second workpiece of the first pair of workpieces in response to the pressing; initiating a weld phase by outputting energy from the ultrasonic welding stack to the first workpiece of the first pair of workpieces; monitoring, with at least one sensor, a weld force rate of change; determining whether the weld force rate of change has reached a predetermined level; and based on determining that the weld force rate of change has reached the predetermined level, ending the weld phase. pressing an ultrasonic welding stack against a first workpiece of a first pair of workpieces such that the first workpiece comes into contact with a second workpiece of the first pair of workpieces in response to the pressing; initiating a weld phase by outputting energy from the ultrasonic welding stack to the first workpiece of the first pair of workpieces; monitoring, with at least one sensor, a weld force rate of change; determining whether the weld force rate of change has reached a predetermined level; and based on determining that the weld force rate of change has reached the predetermined level, ending the weld phase.
Method for assigning wheel-mounted tire pressure monitoring devices (3a, 3b, 3c, 3d) to wheel positions of a motor vehicle, a central unit being arranged on the motor vehicle and having at least one receiving unit, and a tire pressure monitoring device (3a, 3b, 3c, 3d) being arranged on each wheel of a plurality of wheels (2a, 2b, 2c, 2d) of the motor vehicle respectively, each of the tire pressure monitoring devices having at least one position sensor for determining rotational angle information and a transmitting device for radio signals and a unique, stored identification identifier, comprising the steps of: repeatedly transmitting the identification identifier from the tire pressure control devices (3a, 3b, 3c, 3d) by means of the respectively associated transmitting device together with at least one rotational angle information of the respectively associated position sensor, wherein a plurality of signals are transmitted from the tire pressure control devices at a plurality of different rotational angle positions with respectively associated rotational angle information to the receiving device, wherein this transmission takes place over a plurality of revolutions of the wheel, receiving the identification identifiers and the associated rotation angle information in the central processing unit, a reception level being detected and stored in the central processing unit in each case, comparing the received rotation angle information and the associated detected reception levels for each identification identifier with stored comparison data, the comparison data for each wheel position including characteristic value assignments between rotation angle information and comparison reception levels, and associating each of the identification identifiers with a wheel position in response to the comparison. repeatedly transmitting the identification identifier from the tire pressure control devices (3a, 3b, 3c, 3d) by means of the respectively associated transmitting device together with at least one rotational angle information of the respectively associated position sensor, wherein a plurality of signals are transmitted from the tire pressure control devices at a plurality of different rotational angle positions with respectively associated rotational angle information to the receiving device, wherein this transmission takes place over a plurality of revolutions of the wheel, receiving the identification identifiers and the associated rotation angle information in the central processing unit, a reception level being detected and stored in the central processing unit in each case, comparing the received rotation angle information and the associated detected reception levels for each identification identifier with stored comparison data, the comparison data for each wheel position including characteristic value assignments between rotation angle information and comparison reception levels, and associating each of the identification identifiers with a wheel position in response to the comparison.