mhurhangee/ep-ind-claims huggingface dataset:
A compound having the formula: wherein: X 1 and X 2 independently are a halide or a substituted or unsubstituted aliphatic, aromatic, or cyclic group, or a combination thereof; X 3 is a substituted cyclopentadienyl, a substituted indenyl, or a substituted fluorenyl group, any substituents on X 3 independently are a hydrogen atom or a substituted or unsubstituted alkyl or alkenyl group; X 4 is a substituted cyclopentadienyl, indenyl, or fluorenyl group, any substituents on X 4 other than an alkenyl linking group independently are a hydrogen atom or a substituted or unsubstituted alkyl or alkenyl group; M is Zr, Hf, or Ti; R X, R Y, and R Z independently are a hydrogen atom, or a substituted or unsubstituted aliphatic, aromatic, or cyclic group, or a combination thereof; and n is an integer in a range from 0 to 12, inclusive. X 1 and X 2 independently are a halide or a substituted or unsubstituted aliphatic, aromatic, or cyclic group, or a combination thereof; X 3 is a substituted cyclopentadienyl, a substituted indenyl, or a substituted fluorenyl group, any substituents on X 3 independently are a hydrogen atom or a substituted or unsubstituted alkyl or alkenyl group; X 4 is a substituted cyclopentadienyl, indenyl, or fluorenyl group, any substituents on X 4 other than an alkenyl linking group independently are a hydrogen atom or a substituted or unsubstituted alkyl or alkenyl group; M is Zr, Hf, or Ti; R X, R Y, and R Z independently are a hydrogen atom, or a substituted or unsubstituted aliphatic, aromatic, or cyclic group, or a combination thereof; and n is an integer in a range from 0 to 12, inclusive.
A battery management system for the controlling and monitoring of a plurality of lithium ion cells or similar battery cells including lithium molybdenum, nickel, cadmium and PB cells, the BMS including a central controlling microcontroller and a plurality of control circuits (32, 36) connected with a respective battery cell and serving to individually monitoring the charging of the individual respective battery cell and at the time of reaching a maximum charging state in the individual battery cell establishing a shunt across the individual battery cell for allowing a continued charging of the remaining battery cells and at the same time communicating to the central controlling microcontroller a message representing that the maximum charging state has been reached and serving during discharging of the battery to monitor the state of the individual respective battery cell and to inform the central controlling microcontroller in case a minimum charging state has been reached in the individual battery cell for causing the central controlling microcontroller to disconnect the battery as a whole from the load in order to prevent excessive discharging of the individual battery cells, where said control circuits comprise cell balancing means and slave sensing means, and where said slave sensing means comprise a slave microcontroller.
Chucking apparatus for clamping an object, in particular a tool, in place, having a basic body (3; 109; 119) which has a receiving space (9; 100) in which the object is able to be arranged, wherein provision is made of a chucking device (17; 91) with a chucking nut (19; 93) which is able to be screwed onto the basic body (3; 109; 119), the object arranged in the receiving space (9; 100) being able to be clamped in place in a rotationally conjoint manner as a result of the screwing of said chucking nut onto the basic body (3; 109; 119), characterized in that the chucking nut (19; 93) has multiple cylindrical roller bodies with a defined roller engagement structure, wherein the roller bodies are arranged in an axially rotatable manner on the chucking nut (19; 93) so as to be distributed in a circumferential direction and held on a sleeve-like chucking body (21; 95) of the chucking nut (19; 93), or in that multiple cylindrical roller bodies with a defined roller engagement structure are arranged held in an axially rotatable manner between a sleeve-like chucking body (21; 95) of the chucking nut (19; 93) and the basic body (3; 109; 119) so as to be distributed in a circumferential direction, in that at least one basic-body engagement structure (59; 111; 121) is formed on the basic body (3; 109; 119), wherein the roller bodies are in engagement or are able to be brought into engagement by way of their roller engagement structure with the at least one basic-body engagement structure (59; 111; 121) of the basic body (3; 109; 119), and in that the chucking nut (19; 93) is able to be screwed onto the basic body (3; 109; 119) and is able to be unscrewed from the basic body (3; 109; 119) by means of the interengaging engagement structures (49, 59; 111; 121), with the roller bodies rolling on the basic body (3; 109; 119). in that the chucking nut (19; 93) has multiple cylindrical roller bodies with a defined roller engagement structure, wherein the roller bodies are arranged in an axially rotatable manner on the chucking nut (19; 93) so as to be distributed in a circumferential direction and held on a sleeve-like chucking body (21; 95) of the chucking nut (19; 93), or in that multiple cylindrical roller bodies with a defined roller engagement structure are arranged held in an axially rotatable manner between a sleeve-like chucking body (21; 95) of the chucking nut (19; 93) and the basic body (3; 109; 119) so as to be distributed in a circumferential direction, in that at least one basic-body engagement structure (59; 111; 121) is formed on the basic body (3; 109; 119), wherein the roller bodies are in engagement or are able to be brought into engagement by way of their roller engagement structure with the at least one basic-body engagement structure (59; 111; 121) of the basic body (3; 109; 119), and in that the chucking nut (19; 93) is able to be screwed onto the basic body (3; 109; 119) and is able to be unscrewed from the basic body (3; 109; 119) by means of the interengaging engagement structures (49, 59; 111; 121), with the roller bodies rolling on the basic body (3; 109; 119).
A method comprising: during a single actuation of a pneumatic artificial muscle 'PAM' actuator comprising first and second end caps (102, 104), in which actuation a distance between the end caps narrows: inflating an elastic bladder of the PAM actuator to move an object connected to the PAM actuator, the PAM actuator comprising a covering around the elastic bladder; venting the elastic bladder while the object connected to the PAM actuator is moving; and braking the PAM actuator using at least the covering. inflating an elastic bladder of the PAM actuator to move an object connected to the PAM actuator, the PAM actuator comprising a covering around the elastic bladder; venting the elastic bladder while the object connected to the PAM actuator is moving; and braking the PAM actuator using at least the covering.
A method for detecting chronic sinusitis, which comprises measuring the concentration of a periostin protein in blood or nasal secretion collected from a test subject.
A method of verifying a terminal, comprising: establishing (101, 201) a secure channel with a server through a secure element in the terminal, characterized by: sending (102, 202) original terminal hardware parameters in the secure element to the server through the secure channel by using the secure element, the server being configured to feedback identification information according to the terminal hardware parameters; and determining (103, 203) a verification result of an authenticity of the terminal according to the identification information fed back by the server; wherein the determining the verification result of an authenticity of the terminal according to the identification information fed back by the server comprises: if the identification information is the terminal hardware parameters, comparing the terminal hardware parameters with reference hardware parameters, and determining the verification result of the authenticity of the terminal according to the comparison result; and if the identification information is the comparison result generated by the server after comparing the terminal hardware parameters with the reference hardware parameters, determining the verification result of the authenticity of the terminal according to the comparison result. sending (102, 202) original terminal hardware parameters in the secure element to the server through the secure channel by using the secure element, the server being configured to feedback identification information according to the terminal hardware parameters; and determining (103, 203) a verification result of an authenticity of the terminal according to the identification information fed back by the server; wherein the determining the verification result of an authenticity of the terminal according to the identification information fed back by the server comprises: if the identification information is the terminal hardware parameters, comparing the terminal hardware parameters with reference hardware parameters, and determining the verification result of the authenticity of the terminal according to the comparison result; and if the identification information is the comparison result generated by the server after comparing the terminal hardware parameters with the reference hardware parameters, determining the verification result of the authenticity of the terminal according to the comparison result. if the identification information is the terminal hardware parameters, comparing the terminal hardware parameters with reference hardware parameters, and determining the verification result of the authenticity of the terminal according to the comparison result; and if the identification information is the comparison result generated by the server after comparing the terminal hardware parameters with the reference hardware parameters, determining the verification result of the authenticity of the terminal according to the comparison result.
A photon counting X-ray detector unit comprising: - a photon counting semiconductor element for generating electron-hole pairs in response to incident X-ray photons, - a cathode electrode (11, 21, 31) arranged on a first side of said semiconductor element facing incited X-ray radiation, said cathode electrode comprising two interdigitated cathode elements (11a, 11b; 21a, 21b; 31a, 31b, 31c, 31ac, 31d; 41a, 41b; 51a, 51b), - a pixelated anode electrode arranged on a second side of said semiconductor element opposite said first side, wherein said pixelated anode electrode is coupled to a readout unit for reading out electrical signals from said pixelated anode electrode, - a power source for applying a bias voltage between said cathode electrode and said anode electrode and for temporarily applying an injection voltage between said cathode elements (11a, 11b; 21a, 21b; 31a, 31b, 31c, 31ac, 31d; 41a, 41b; 51a, 51b), wherein said photon counting X-ray detector unit is configured to drift charge carriers from said cathode electrode (11, 21, 31) towards said anode electrode in response to an applied bias voltage between said anode electrode and said cathode electrode (11,21,31) and to temporarily inject charge carriers between said cathode elements (11a, 11b; 21a, 21b; 31a, 31b, 31c, 31ac, 31d; 41a, 41b; 51a, 51b) in response to a temporarily applied injection voltage between said cathode elements (11a, 11b; 21a, 21b; 31a, 31b, 31c, 31ac, 31d; 41a, 41b; 51a, 51b). - a photon counting semiconductor element for generating electron-hole pairs in response to incident X-ray photons, - a cathode electrode (11, 21, 31) arranged on a first side of said semiconductor element facing incited X-ray radiation, said cathode electrode comprising two interdigitated cathode elements (11a, 11b; 21a, 21b; 31a, 31b, 31c, 31ac, 31d; 41a, 41b; 51a, 51b), - a pixelated anode electrode arranged on a second side of said semiconductor element opposite said first side, wherein said pixelated anode electrode is coupled to a readout unit for reading out electrical signals from said pixelated anode electrode, - a power source for applying a bias voltage between said cathode electrode and said anode electrode and for temporarily applying an injection voltage between said cathode elements (11a, 11b; 21a, 21b; 31a, 31b, 31c, 31ac, 31d; 41a, 41b; 51a, 51b), wherein said photon counting X-ray detector unit is configured to drift charge carriers from said cathode electrode (11, 21, 31) towards said anode electrode in response to an applied bias voltage between said anode electrode and said cathode electrode (11,21,31) and to temporarily inject charge carriers between said cathode elements (11a, 11b; 21a, 21b; 31a, 31b, 31c, 31ac, 31d; 41a, 41b; 51a, 51b) in response to a temporarily applied injection voltage between said cathode elements (11a, 11b; 21a, 21b; 31a, 31b, 31c, 31ac, 31d; 41a, 41b; 51a, 51b).
Method with which a telecommunication user accesses a telecommunications service by means of a telecommunication terminal and an electronic address, with the following method steps: the telecommunication user reads an electronic code stored in a RFID element with a RFID reader device, said electronic code is transmitted over a telecommunication network to a name service-server, said electronic address is retrieved and supplied to said telecommunication terminal; said telecommunication service is accessed on the basis of said electronic address; characterized by the further method steps: said name service-server replies with the electronic page address of a remote page, wherein said electronic page address is linked to said code in the name service-server, said electronic address is determined with the electronic page address, wherein a password is requested such that the code is transmitted to the name service-server or that the code is treated, wherein the password consists of a part of the code or is retrieved with a function from said code. the telecommunication user reads an electronic code stored in a RFID element with a RFID reader device, said electronic code is transmitted over a telecommunication network to a name service-server, said electronic address is retrieved and supplied to said telecommunication terminal; said telecommunication service is accessed on the basis of said electronic address; characterized by the further method steps: said name service-server replies with the electronic page address of a remote page, wherein said electronic page address is linked to said code in the name service-server, said electronic address is determined with the electronic page address, wherein a password is requested such that the code is transmitted to the name service-server or that the code is treated, wherein the password consists of a part of the code or is retrieved with a function from said code. said name service-server replies with the electronic page address of a remote page, wherein said electronic page address is linked to said code in the name service-server, said electronic address is determined with the electronic page address, wherein a password is requested such that the code is transmitted to the name service-server or that the code is treated, wherein the password consists of a part of the code or is retrieved with a function from said code.
Reducing agent line of an exhaust-gas reduction system, wherein the reducing agent line has a first cross section and wherein, in the reducing agent line, there is arranged an insert piece which is designed so as to reduce the cross section of the reducing agent line to a second cross section which is smaller than the first cross section, wherein the insert piece has a cylindrical bore which has the second cross section; characterized in that the insert piece has a bevelled region which extends from an end of the cylindrical bore to an end side of the insert piece.
An adaptor (44, 70) for use mating a non-plug-in type circuit breaker to a bus structure (14, 64) of a plug-in breaker panel (40, 62), the adaptor (44, 70) comprising: a first portion (48, 72) structured to be coupled to a terminal of the non-plug-in type circuit breaker, the first portion being formed from a first conductive material; and an opposite second portion (50, 74) structured to cooperatively engage a portion (24, 66) of the bus structure (14, 64), the opposite second portion being formed from a second conductive material, wherein the portion (24, 66) of the bus structure (14, 64) can either be a first plug-in member or a socket; wherein the first portion (48, 72) and the opposite second portion (50, 74) are structured to form a conductive pathway between the terminal of the non-plug-in type circuit breaker and the portion (24, 66) of the bus structure (14, 64), and wherein the opposite second portion (50, 74) of the adapter (44, 70) comprises a socket structured to cooperatively receive therein the first plug-in member of the bus structure, characterized in that the socket of the opposite second portion (50, 74) is further structured to cooperatively receive therein a post-like plug-in member of the adapter, configured to engage the socket of the bus structure. a first portion (48, 72) structured to be coupled to a terminal of the non-plug-in type circuit breaker, the first portion being formed from a first conductive material; and an opposite second portion (50, 74) structured to cooperatively engage a portion (24, 66) of the bus structure (14, 64), the opposite second portion being formed from a second conductive material, wherein the portion (24, 66) of the bus structure (14, 64) can either be a first plug-in member or a socket; wherein the first portion (48, 72) and the opposite second portion (50, 74) are structured to form a conductive pathway between the terminal of the non-plug-in type circuit breaker and the portion (24, 66) of the bus structure (14, 64), and wherein the opposite second portion (50, 74) of the adapter (44, 70) comprises a socket structured to cooperatively receive therein the first plug-in member of the bus structure, characterized in that the socket of the opposite second portion (50, 74) is further structured to cooperatively receive therein a post-like plug-in member of the adapter, configured to engage the socket of the bus structure.
An elevator system (10, 101), comprising: at least one guide rail (12, 109); a plurality of safeties to respectively selectively impede or permit movement of an elevator car (11, 103) along a corresponding guide rail (12, 109); first and second electronic safety actuators (ESAs) respectively coupled to at least one corresponding safety, the first ESA comprising a first braking surface located a first distance from the corresponding guide rail (12, 109), the second ESA comprising a second braking surface located a second distance from the corresponding guide rail (12, 109), and the first and second braking surfaces deployable across the first and second distances, respectively, to contact the corresponding guide rails (12, 109); characterized by: a sensing system to determine the first and second distances; and a control system to deploy the first and second braking surfaces toward the corresponding guide rails (12, 109) in response to an over-speed or an over-acceleration condition with synchronization based at least in part on the first and second distances. at least one guide rail (12, 109); a plurality of safeties to respectively selectively impede or permit movement of an elevator car (11, 103) along a corresponding guide rail (12, 109); first and second electronic safety actuators (ESAs) respectively coupled to at least one corresponding safety, the first ESA comprising a first braking surface located a first distance from the corresponding guide rail (12, 109), the second ESA comprising a second braking surface located a second distance from the corresponding guide rail (12, 109), and the first and second braking surfaces deployable across the first and second distances, respectively, to contact the corresponding guide rails (12, 109); characterized by: a sensing system to determine the first and second distances; and a control system to deploy the first and second braking surfaces toward the corresponding guide rails (12, 109) in response to an over-speed or an over-acceleration condition with synchronization based at least in part on the first and second distances. a sensing system to determine the first and second distances; and a control system to deploy the first and second braking surfaces toward the corresponding guide rails (12, 109) in response to an over-speed or an over-acceleration condition with synchronization based at least in part on the first and second distances.
A method for producing a composite prepreg base (a) comprising a raw prepreg base (a') composed of a fiber sheet of discontinuous reinforcing fibers having a fiber length of 1 to 300 mm and arranged in one direction and a matrix resin impregnated into the fiber sheet, and an additional resin layer formed on at least one of the surfaces of the raw prepreg base (a'), which comprises the steps of: (1-a) preparing a prepreg base comprising a fiber sheet of continuous reinforcing fibers arranged in one direction and a matrix resin impregnated at least partly into the fiber sheet, (1-b) forming an additional resin layer on at least one of the surfaces of the prepreg base prepared in the step (1-a), and (1-c) forming cuts (7a, 8a, 9a, 7b, 8b, 9b) into the prepreg base having the additional resin layer formed in the step (1-b) to form discontinuous reinforcing fibers having a fiber length of 1 to 300 mm from the continuous reinforcing fibers, wherein, when a pressing pressure is applied from above onto a layered base (b) obtained by laminating plural composite prepreg bases (a), a gap is formed in the interval between the ends of the adjacent discontinuous reinforcing fibers and the additional resin layer (10, 10a, 10b, 10c, 10d) flows into the gap, filling the gap as resin. (1-a) preparing a prepreg base comprising a fiber sheet of continuous reinforcing fibers arranged in one direction and a matrix resin impregnated at least partly into the fiber sheet, (1-b) forming an additional resin layer on at least one of the surfaces of the prepreg base prepared in the step (1-a), and (1-c) forming cuts (7a, 8a, 9a, 7b, 8b, 9b) into the prepreg base having the additional resin layer formed in the step (1-b) to form discontinuous reinforcing fibers having a fiber length of 1 to 300 mm from the continuous reinforcing fibers, wherein, when a pressing pressure is applied from above onto a layered base (b) obtained by laminating plural composite prepreg bases (a), a gap is formed in the interval between the ends of the adjacent discontinuous reinforcing fibers and the additional resin layer (10, 10a, 10b, 10c, 10d) flows into the gap, filling the gap as resin.