mhurhangee/ep-ind-claims huggingface dataset:
A brake pad 30, 31 of a disc brake 1 having at least one friction pad 7, 7' mounted on a pad carrier 8, 8' and a locking device 12 arranged on the pad carrier 8, 8' having a spring element 13 and a securing element 14, the spring element 13 and the securing element 14 of the locking device 12 being coupled to one another in a form fit as two separate parts and pivotable relative to one another, characterised in that the locking device 12 can be moved out of an unlocked position, in which a locking section 14c of the securing element 14 is accommodated in a recess 8e in the pad carrier 8, into a locking position, in which the locking section 14c of the securing element 14 projects laterally from the pad carrier 8 in order to interact with a recess 21 in a brake carrier lug 5, 5', 6, 6' of an associated disc brake 1, and back again.
A method for controlling an electrical machine comprising two multiphase stator windings, the method comprising: - controlling power stages connected to the multiphase stator windings on the basis of four rotation-converted stator currents (i D1, i Q1, i D2, i Q2) expressed in a coordinate system bound to a rotor of the electrical machine and on the basis of a model of the electrical machine modeling at least inductances of the two multiphase stator windings and mutual inductances between the two multiphase stator windings, and - converting stator phase currents of the two multiphase stator windings into the four rotation-converted stator currents with a conversion rule corresponding to a form of the model of the electrical machine where each of stator flux-linkages of the model is dependent on only one of the rotation-converted stator currents when inductance parameters of the model are unaltered, characterized in that inductance coefficients between the stator flux-linkages of the model and the rotation-converted stator currents are proportional to: L d + M d, L q + M q, L d - M d, and L q - M q, where L d is a direct-axis inductance, M d is a direct-axis mutual inductance between the two multiphase stator windings, L q is a quadrature-axis inductance, and M q is a quadrature-axis mutual inductance between the two multiphase stator windings. - controlling power stages connected to the multiphase stator windings on the basis of four rotation-converted stator currents (i D1, i Q1, i D2, i Q2) expressed in a coordinate system bound to a rotor of the electrical machine and on the basis of a model of the electrical machine modeling at least inductances of the two multiphase stator windings and mutual inductances between the two multiphase stator windings, and - converting stator phase currents of the two multiphase stator windings into the four rotation-converted stator currents with a conversion rule corresponding to a form of the model of the electrical machine where each of stator flux-linkages of the model is dependent on only one of the rotation-converted stator currents when inductance parameters of the model are unaltered,
A sealing unit comprising: a sealant defining at least one cable port; a pressurization arrangement for pressurizing the sealant, the pressurization arrangement including a spring and an actuator for causing the spring to apply spring pressure to the sealant; an actuation level indicator including a first indicator structure that moves with a pressurization component of the pressurization arrangement, the pressurization component being configured to move in response to shrinkage of the sealant over time, the actuation level indicator also including a second indicator structure that moves relative to the first indicator structure during actuation of the pressurization arrangement, and that moves with the first indicator structure when the pressurization component moves in response to shrinkage of the sealant over time. a sealant defining at least one cable port; a pressurization arrangement for pressurizing the sealant, the pressurization arrangement including a spring and an actuator for causing the spring to apply spring pressure to the sealant; an actuation level indicator including a first indicator structure that moves with a pressurization component of the pressurization arrangement, the pressurization component being configured to move in response to shrinkage of the sealant over time, the actuation level indicator also including a second indicator structure that moves relative to the first indicator structure during actuation of the pressurization arrangement, and that moves with the first indicator structure when the pressurization component moves in response to shrinkage of the sealant over time.
A display member (10, 60, 170) comprising: a surface (10a, 24a, 122F, 125F, 171F, 172F) which is an observation object; a first image pattern (12, 123a) which is covered by the surface (10a, 24a, 122F, 125F, 171F, 172F) and displays, through the surface, a first image including one or more first information elements for identifying an owner of the display member; and a second image pattern which is covered by the surface (10a, 24a, 122F, 125F, 171F, 172F) and in which one or more second information elements are embedded, a part of the second image pattern restricting identification of the one or more second information elements, the second image pattern including a second image that differs from the first image (11, 61) and is for identifying the owner of the display member; and a concealment pattern (23a, 124a, 172a, 223a) that is located between the second image pattern and the surface (10a, 24a, 122F, 125F, 171F, 172F) and removes the restriction on identification of the one or more second information elements by concealing the part of the second image pattern; and a diffraction portion (125a, 182a), characterized in that the diffraction portion (125a, 182a) is located between the concealment pattern (23a, 124a, 172a, 223a) and the surface (10a, 24a, 122F, 125F, 171F, 172F), and has asperities and is configured to emit diffracted light, and in that in plan view of the surface (10a, 24a, 122F, 125F, 171F, 172F), the diffraction portion (125a, 182a) covers at least a part of at least one of the first image pattern (12, 123a) and the concealment pattern (23a, 124a, 172a, 223a). a surface (10a, 24a, 122F, 125F, 171F, 172F) which is an observation object; a first image pattern (12, 123a) which is covered by the surface (10a, 24a, 122F, 125F, 171F, 172F) and displays, through the surface, a first image including one or more first information elements for identifying an owner of the display member; and a second image pattern which is covered by the surface (10a, 24a, 122F, 125F, 171F, 172F) and in which one or more second information elements are embedded, a part of the second image pattern restricting identification of the one or more second information elements, the second image pattern including a second image that differs from the first image (11, 61) and is for identifying the owner of the display member; and a concealment pattern (23a, 124a, 172a, 223a) that is located between the second image pattern and the surface (10a, 24a, 122F, 125F, 171F, 172F) and removes the restriction on identification of the one or more second information elements by concealing the part of the second image pattern; and a diffraction portion (125a, 182a), characterized in that the diffraction portion (125a, 182a) is located between the concealment pattern (23a, 124a, 172a, 223a) and the surface (10a, 24a, 122F, 125F, 171F, 172F), and has asperities and is configured to emit diffracted light, and in that in plan view of the surface (10a, 24a, 122F, 125F, 171F, 172F), the diffraction portion (125a, 182a) covers at least a part of at least one of the first image pattern (12, 123a) and the concealment pattern (23a, 124a, 172a, 223a).
A method for wireless communications at a user equipment, UE, comprising: receiving, from a base station, control signaling identifying a configuration that indicates a plurality of random access channel occasion types and a channel quality threshold for each random access channel occasion type of the plurality of random access channel occasion types, the plurality of random access channel occasion types comprising a time division multiplexing type, a frequency division multiplexing type, a spatial division multiplexing type, or a combination thereof; selecting, based at least in part on the configuration and a channel quality between the UE and the base station, a random access channel occasion type of the plurality of random access channel occasion types and a random access channel occasion associated with the selected random access channel occasion type; and transmitting a random access channel preamble in the selected random access channel occasion type based at least in part on a multiplexing scheme comprising the selected random access channel occasion type. receiving, from a base station, control signaling identifying a configuration that indicates a plurality of random access channel occasion types and a channel quality threshold for each random access channel occasion type of the plurality of random access channel occasion types, the plurality of random access channel occasion types comprising a time division multiplexing type, a frequency division multiplexing type, a spatial division multiplexing type, or a combination thereof; selecting, based at least in part on the configuration and a channel quality between the UE and the base station, a random access channel occasion type of the plurality of random access channel occasion types and a random access channel occasion associated with the selected random access channel occasion type; and transmitting a random access channel preamble in the selected random access channel occasion type based at least in part on a multiplexing scheme comprising the selected random access channel occasion type.
A compound of formula: wherein: - G represents a group selected from: a) -C NH-, b) --NHC -, - X 1, X 2, X 3 and X 4 represent a N atom or C-R 5 group, - R 1 and R 2 are independently selected from the group consisting of: a) hydrogen atom, b) linear or branched C 1 -C 6 alkyl optionally substituted by 1, 2 or 3 substituents selected from -N(R 6)R 7, -OR 6, halogen atom and C 3 -C 6 cycloalkyl, c) C 3 -C 6 cycloalkyl, - or R 1 and R 2 form together with the nitrogen atom to which they are attached a four to six-membered heterocyclic group, comprising additionally a second heteroatom selected from N and O; - R 3 represents a group selected from: a) cyano group, and b) halogen atom, - R 4 represents a group selected from: a) halogen atom, b) C 3 -C 4 cycloalkyl group, c) C 1 -C 3 alkoxy group, d) C 1 -C 3 haloalkyl group, e) cyano group, - R 5 represents a group selected from: a) hydrogen atom, b) C 1 -C 3 alkyl, c) halogen atom, - R 6 and R 7 represent independently a group selected from: a) C 1 -C 3 alkyl, b) hydrogen atom, with the proviso that at least one of the X 1, X 2, X 3 and X 4 represents a N atom, and pharmaceutically acceptable salts thereof. - G represents a group selected from: a) -C NH-, b) --NHC -, a) -C NH-, b) --NHC -, - X 1, X 2, X 3 and X 4 represent a N atom or C-R 5 group, - R 1 and R 2 are independently selected from the group consisting of: a) hydrogen atom, b) linear or branched C 1 -C 6 alkyl optionally substituted by 1, 2 or 3 substituents selected from -N(R 6)R 7, -OR 6, halogen atom and C 3 -C 6 cycloalkyl, c) C 3 -C 6 cycloalkyl, a) hydrogen atom, b) linear or branched C 1 -C 6 alkyl optionally substituted by 1, 2 or 3 substituents selected from -N(R 6)R 7, -OR 6, halogen atom and C 3 -C 6 cycloalkyl, c) C 3 -C 6 cycloalkyl, - or R 1 and R 2 form together with the nitrogen atom to which they are attached a four to six-membered heterocyclic group, comprising additionally a second heteroatom selected from N and O; - R 3 represents a group selected from: a) cyano group, and b) halogen atom, a) cyano group, and b) halogen atom, - R 4 represents a group selected from: a) halogen atom, b) C 3 -C 4 cycloalkyl group, c) C 1 -C 3 alkoxy group, d) C 1 -C 3 haloalkyl group, e) cyano group, a) halogen atom, b) C 3 -C 4 cycloalkyl group, c) C 1 -C 3 alkoxy group, d) C 1 -C 3 haloalkyl group, e) cyano group, - R 5 represents a group selected from: a) hydrogen atom, b) C 1 -C 3 alkyl, c) halogen atom, a) hydrogen atom, b) C 1 -C 3 alkyl, c) halogen atom, - R 6 and R 7 represent independently a group selected from: a) C 1 -C 3 alkyl, b) hydrogen atom, a) C 1 -C 3 alkyl, b) hydrogen atom,
A blister pack (100; 200) comprising: a sterile holding area (120, 130; 220, 230) with a sterile eye surgery instrument (122, 132; 222, 232), wherein a front (110; 210) of the blister pack (100; 200) includes the sterile holding area; and at least one defined pressure point (140, 150, 160, 170; 240, 250, 260) on the back (190, 290) of the blister pack (100; 200), wherein the pressure point (140, 150, 160, 170; 240, 250, 260) is located near the sterile holding area and is configured for, when the blister pack is placed inverted on a sterile surface and the pressure point (140, 150, 160, 170; 240, 250, 260) is being pressed, controlled removal of the sterile eye surgery instrument (122, 132; 222, 232) from the blister pack (100; 200) while maintaining the sterility of the sterile eye surgery instrument (122, 132; 222, 232). a sterile holding area (120, 130; 220, 230) with a sterile eye surgery instrument (122, 132; 222, 232), wherein a front (110; 210) of the blister pack (100; 200) includes the sterile holding area; and at least one defined pressure point (140, 150, 160, 170; 240, 250, 260) on the back (190, 290) of the blister pack (100; 200), wherein the pressure point (140, 150, 160, 170; 240, 250, 260) is located near the sterile holding area and is configured for, when the blister pack is placed inverted on a sterile surface and the pressure point (140, 150, 160, 170; 240, 250, 260) is being pressed, controlled removal of the sterile eye surgery instrument (122, 132; 222, 232) from the blister pack (100; 200) while maintaining the sterility of the sterile eye surgery instrument (122, 132; 222, 232).
Gas distribution apparatus of a vacuum chamber with a gas conducting device, which comprises at least one main duct that has nozzles, from which gas can be distributed into the vacuum chamber, and with a gas supplying device, by means of which gas can be supplied to the gas conducting device, the at least one main duct being formed by a component formed in one piece as a hollow profile, and at least one main gas supply duct of the gas supplying device and at least one tuning duct with tuning duct nozzles (37, 37'), from which at least one tuning gas can be distributed into the vacuum chamber, also being formed by the component formed in one piece as a hollow profile, characterized in that the component is formed as an extruded section.
Method for coding information symbols belonging to an alphabet by means of acoustic signals, characterised in that: (a) a set of random signals is acquired and they are filtered by means of a filter of interest (110-120; 210-220) having for response the response of the transmission channel on which these signals are intended to be transmitted; (b) sub-sets ( S N) of N random signals thereby filtered of said set are selected (150, 250) and, for each sub-set, a correlation matrix of the signals thereby selected is calculated (160, 260); (c) the sub-set of N signals corresponding to the correlation matrix the closest to a diagonal matrix is retained as coding dictionary (170-180,270-280); (d) each information symbol of the alphabet is coded by a random signal of the dictionary, said random signal of the dictionary being transformed into an acoustic signal by means of a transducer. (a) a set of random signals is acquired and they are filtered by means of a filter of interest (110-120; 210-220) having for response the response of the transmission channel on which these signals are intended to be transmitted; (b) sub-sets ( S N) of N random signals thereby filtered of said set are selected (150, 250) and, for each sub-set, a correlation matrix of the signals thereby selected is calculated (160, 260); (c) the sub-set of N signals corresponding to the correlation matrix the closest to a diagonal matrix is retained as coding dictionary (170-180,270-280); (d) each information symbol of the alphabet is coded by a random signal of the dictionary, said random signal of the dictionary being transformed into an acoustic signal by means of a transducer.
A package comprising: a container; and a holder having a recess arranged to receive a portion of a surgical implant or a surgical instrument, or a component coupled to the surgical implant or the surgical instrument, the holder being arranged to be at least partially received within the container; wherein the holder has a first configuration in which the mouth of the recess is arranged to partially surround a portion of the surgical implant or the surgical instrument, or a component coupled to the surgical implant or the surgical instrument, such that the recess grips the surgical implant or the surgical instrument in position spaced apart from the container when the holder is at least partially received in the container, and a second configuration in which the mouth of the recess opens to release the surgical implant or the surgical instrument, characterised in that the holder comprises first and second portions connected together along a fold line, each portion of the holder defining a respective portion of the recess such that folding the holder along the fold line to change the holder between the first configuration and the second configuration moves the recess portions apart to open the mouth of the recess. a container; and a holder having a recess arranged to receive a portion of a surgical implant or a surgical instrument, or a component coupled to the surgical implant or the surgical instrument, the holder being arranged to be at least partially received within the container;
Arrangement with a housing, a shaft and a radial shaft sealing ring with a supporting ring and a sealing element which is attached thereto by vulcanization, is composed of an elastomeric material and has a sealing lip with a single-start thread as return grooves, wherein, when the sealing ring is not installed, the sealing lip protrudes from the supporting ring in the radial direction and, when installed in a housing opening with its angled sealing surface under prestress, surrounds the shaft, wherein, when the sealing element is installed, the end surface of the sealing lip is directed towards the interior space to be sealed off in the housing, characterized in that the sealing surface consists by a sealing bead which is arranged at the end of the sealing lip composed of an elastomer and surrounds the shaft and a surface portion which adjoins said sealing bead, is provided with the return grooves, and retains or conveys back the leakage liquid, wherein the return grooves act hydrodynamically, and the thread arranged on the surface portion peters out in a continuously flattening manner in the sealing bead over a petering-out extent of one quarter to one half of the circumference of the sealing bead.
A method for detecting a position of an object relative to an electrode configuration comprising at least three electrodes (El, E2, E3), wherein a first electrode is arranged substantially parallel or concentrically with respect to a second electrode, a third electrode is arranged in an acute angle (α) or excentric relative to the first electrode, the first electrode is loaded with a first generator signal, the method being characterized by: - operating the second electrode as a receiving electrode and loading the third electrode with a second generator signal for determining a coverage of the electrode configuration by the object, wherein a first measurement signal is received at the receiving electrode, which is representative for a first coupling capacity between the receiving electrode and the first electrode, - operating the third electrode as a receiving electrode and loading the second electrode with the second generator signal for determining the position, wherein at the receiving electrode a second measurement signal is received, which is representative for a second coupling capacity between the receiving electrode and the first electrode, and wherein the position is determined from the ratio of a change of the second coupling capacity to a change of the first coupling capacity due to the presence of the object. - operating the second electrode as a receiving electrode and loading the third electrode with a second generator signal for determining a coverage of the electrode configuration by the object, wherein a first measurement signal is received at the receiving electrode, which is representative for a first coupling capacity between the receiving electrode and the first electrode, - operating the third electrode as a receiving electrode and loading the second electrode with the second generator signal for determining the position, wherein at the receiving electrode a second measurement signal is received, which is representative for a second coupling capacity between the receiving electrode and the first electrode, and wherein the position is determined from the ratio of a change of the second coupling capacity to a change of the first coupling capacity due to the presence of the object.
An apparatus comprising: a hub; and a group of inflatable blades in which each of the blades has an end associated with the hub, wherein the group of inflatable blades is configured to have a group of aerodynamic functions that control movement of an aircraft at a number of different altitudes, wherein the group of aerodynamic functions is selected by a group of modes of inflation with a fluid; wherein an inflatable blade in the group of inflatable blades comprises: an inflatable outer structure that is an outer mold line for the inflatable blade; and fluid bladders within the inflatable outer structure, charaterized in that the inflatable outer structure and the fluid bladders are each configured to be selectively inflated to change at least one of a shape or a group of dimensions for the inflatable outer structure. a hub; and a group of inflatable blades in which each of the blades has an end associated with the hub, wherein the group of inflatable blades is configured to have a group of aerodynamic functions that control movement of an aircraft at a number of different altitudes, wherein the group of aerodynamic functions is selected by a group of modes of inflation with a fluid; wherein an inflatable blade in the group of inflatable blades comprises: an inflatable outer structure that is an outer mold line for the inflatable blade; and fluid bladders within the inflatable outer structure, charaterized in that the inflatable outer structure and the fluid bladders are each configured to be selectively inflated to change at least one of a shape or a group of dimensions for the inflatable outer structure. an inflatable outer structure that is an outer mold line for the inflatable blade; and fluid bladders within the inflatable outer structure, charaterized in that the inflatable outer structure and the fluid bladders are each configured to be selectively inflated to change at least one of a shape or a group of dimensions for the inflatable outer structure.
A device for detecting at least one object carried by an individual, comprising at least one signal transmitter and one signal receiver, said receiver performing a relative rotational movement about said transmitter, with a signal being transmitted toward said individual for a plurality of positions (j) of said receiver on the circle of relative rotation, with the signals reflected by points (k) of an object and received by said receiver at said positions (j) being fed to processing means for forming a radar image (Im (x, y)), characterised in that said signals are microwave signals, said device comprises laser telemeters, located about said transmitter and said receiver in rotation, for determining the distance from said individual to said device, with the signal transmitted by said transmitter being focussed in a plane that contains said individual.