mhurhangee/ep-ind-claims huggingface dataset:
An object or object part made from a composition comprising a total proportion of at least 80 wt.% of at least one fluoropolymer F, wherein: - the at least one fluoropolymer F comprises vinylidene fluoride units and at least 30 wt.% of units derived from at least one monomer of formula: CX 1 X 2 =CX 3 Y, wherein each of X 1, X 2 and X 3 is independently selected from H, Cl, F, Br, I and alkyl groups comprising from 1 to 3 carbon atoms which are optionally partly or fully halogenated and Y is an alkyl group comprising from 1 to 3 carbon atoms which is optionally partly or fully halogenated; and - the melt viscosity of the composition is at least 1000 Pa.s at a temperature of 230°C and at a shear rate of 100 s -1, as measured according to ASTM D4440 using an apparatus equipped with two parallel plates, as set out in the description, wherein the object is selected from wearable objects and consumer electronics objects. - the at least one fluoropolymer F comprises vinylidene fluoride units and at least 30 wt.% of units derived from at least one monomer of formula: CX 1 X 2 =CX 3 Y, wherein each of X 1, X 2 and X 3 is independently selected from H, Cl, F, Br, I and alkyl groups comprising from 1 to 3 carbon atoms which are optionally partly or fully halogenated and Y is an alkyl group comprising from 1 to 3 carbon atoms which is optionally partly or fully halogenated; and - the melt viscosity of the composition is at least 1000 Pa.s at a temperature of 230°C and at a shear rate of 100 s -1, as measured according to ASTM D4440 using an apparatus equipped with two parallel plates, as set out in the description,
A feeding device for feeding a developer comprising: a cleaning member for removing the developer on an image bearing member in contact with the image bearing member; an accommodating portion for accommodating the removed developer; a feeding member for feeding the developer from said accommodating portion; and a sheet member contacting the image bearing member, wherein a wall surface of said accommodating portion is positioned in a side where said sheet member is provided with respect to a rectilinear line (P-P) connecting a rotation center of the image bearing member and a rotation center of said feeding member in a flat plane perpendicular to an axial direction of the image bearing member, and wherein said feeding member is provided vertically above a position where said cleaning member contacts the image bearing member, characterized in that said wall surface approaches the rectilinear line (P-P) with an increasing level with respect to a vertical direction, and a rotational direction of said feeding member and a rotational direction of the image bearing member are the same. a cleaning member for removing the developer on an image bearing member in contact with the image bearing member; an accommodating portion for accommodating the removed developer; a feeding member for feeding the developer from said accommodating portion; and a sheet member contacting the image bearing member, wherein a wall surface of said accommodating portion is positioned in a side where said sheet member is provided with respect to a rectilinear line (P-P) connecting a rotation center of the image bearing member and a rotation center of said feeding member in a flat plane perpendicular to an axial direction of the image bearing member, and wherein said feeding member is provided vertically above a position where said cleaning member contacts the image bearing member, characterized in that said wall surface approaches the rectilinear line (P-P) with an increasing level with respect to a vertical direction, and a rotational direction of said feeding member and a rotational direction of the image bearing member are the same.
Method for remote control of at least one field device (D1... Dn) in at least one automation system (P1... Pk) with an operating device, where an operating program runs in said operating device and communicates with a server-frame application (SFDT-FA) that runs on one of the field device management modules (FMM1... FMMk) assigned to the at least one automation system (P1... Pk) and serves to operate the field devices (D1... Dn) of the corresponding automation system (P1... Pk), where device driver packages (DTM-P1... DTM-Pk) and at least one communication device driver package (CDTM-P) for operating the field devices (D1... Dn) are installed in the server frame application (SFDT-FA), where the device driver packages (DTM-P1... DTM-Pn) and the at least one communication device driver package (CDTM-P) each have a logic device driver component (DTM-BL1... DTM-BLn; CDTM-BL1... CDTM-BLn) which provides data and functions of at least one of the field devices and a user interface device driver component (DTM-UI1... DTM-UIn; CDTM-UI1... CDTM-UIn) which provides data and functions of a user interface of at least one of the field devices, and where field device type-specific information is displayable by the operating program on a display unit, wherein the device driver packages (DTM-P1... DTM-Pn) of all field devices (D1... Dn) of the automation systems (P1... Pk) and the communication device driver packages (CDTM-P) are additionally installed centrally in copy in a client-frame application (CFDT-FA) which runs on a server assigned to the operating device and arranged outside the field devices (D1... Dn), exclusively web-based user interface device driver components (DTM-UI1... DTM-UIn; CDTM-UI1... CDTM-UIn) run in the client-frame application (CFDT-FA) of the server, exclusively the logic device driver components (DTM-BL1... DTM-BLn; CDTM-BL1... CDTM-BLn) run in the server-frame application (SFDT-FA) of the field device management modules (FMM1... FMMk), and the field device type-specific user interface of at least one device driver or communication device driver is provided by a web server (WSER) linked to the client-frame application as a website and is loaded and displayed in a web browser provided by the operating device.
A polymer bearing support for use in the resilient support of a rotor bearing of a vacuum pump in both radial and axial directions, the bearing support comprising an inner portion configured to be coupled to the bearing and an outer portion configured to be coupled to a housing of the vacuum pump, wherein the inner and outer portions are connected by at least one flexible member, wherein said at least one flexible member is an elongate, arcuate member substantially concentric with the inner annular portion and outer annular portion; wherein the flexible member is annular and joined by at least one first radial beam to the inner portion and at least one second radial beam to the outer portion. characterised in that: the polymer bearing support has an axial stiffness which is greater than the radial stiffness.
A wirelessly remotely controllable actuator system, comprising an actuator for valves in pipelines, a control unit for controlling the actuator, and a communication module for wirelessly receiving and transmitting data, further comprising a cryptographic module (5, 5a, 5b) separate from the control unit, having a first data interface for unencrypted communication with the control unit, a second data interface for encrypted communication with the communication module, wherein the cryptographic module is adapted to encrypt data from the control unit with a predetermined algorithm and to forward the encrypted data to the communication module and to decrypt encrypted data received from the communication module with a predetermined algorithm and to communicate the decrypted data to the control unit, and wherein the cryptographic module is in communication connection with the control unit and the communication module via the first and second interfaces, wherein the actuator further includes an autonomous power source which can at least temporarily supply power to the control unit, the communication module and the cryptographic module, and wherein at least the control unit and the cryptographic module are adapted to operate in a standby mode or in an active mode when predetermined conditions occur.
Retainer for refrigerated goods for a domestic refrigeration appliance, with a wall surface (9, 18) vertically oriented in the refrigeration appliance, in particular a refrigerated storage compartment and at least one support (13; 19), which can be pivoted about a pivot axis between a horizontal setting for retaining refrigerated goods and a first vertical setting parallel to the wall surface (9, 18), characterised in that the wall surface (9, 18) has a cutout, into which the support (13, 19) engages in its horizontal setting and which delimits the pivoting movement freedom of the support (13, 19).
An optical circuit having a high-frequency transmission line (1, 1A), comprising: a first conductor line having a characteristic impedance; a termination resistance connected to the first conductor line; and a second conductor line connected to the termination resistance; and a ground line that is provided to be opposed to the first conductor line, the termination resistance, and the second conductor line, and the ground line is provided to have a distance thereto and wherein the ground line is connected to the second conductor line, wherein: the first conductor line and the ground line are formed so as to have a line width decreasing continuously toward the termination resistance side, respectively thereby forming an impedance transition unit, and the optical circuit is an EA modulator integrated DFB laser, the EA modulator has a signal input electrode and a ground electrode, the signal input electrode of the EA modulator is flip-chip bonded to the first conductor line, and the ground electrode of the EA modulator is flip-chip bonded to the ground line. a first conductor line having a characteristic impedance; a termination resistance connected to the first conductor line; and a second conductor line connected to the termination resistance; and a ground line that is provided to be opposed to the first conductor line, the termination resistance, and the second conductor line, and the ground line is provided to have a distance thereto and wherein the ground line is connected to the second conductor line, wherein: the first conductor line and the ground line are formed so as to have a line width decreasing continuously toward the termination resistance side, respectively thereby forming an impedance transition unit, and the optical circuit is an EA modulator integrated DFB laser, the EA modulator has a signal input electrode and a ground electrode, the signal input electrode of the EA modulator is flip-chip bonded to the first conductor line, and the ground electrode of the EA modulator is flip-chip bonded to the ground line. the first conductor line and the ground line are formed so as to have a line width decreasing continuously toward the termination resistance side, respectively thereby forming an impedance transition unit, and the optical circuit is an EA modulator integrated DFB laser, the EA modulator has a signal input electrode and a ground electrode, the signal input electrode of the EA modulator is flip-chip bonded to the first conductor line, and the ground electrode of the EA modulator is flip-chip bonded to the ground line.
A method of fusing a primary image and a secondary image, wherein the primary image is noisier than the secondary image and wherein the primary image and secondary image are partitioned into regions, the method comprising the steps of: a) determining a local noise level of a region ( P ( m, n)) of the primary image; b) deriving a low-frequency, LF, component ( P LF ( m, n)) from said region of the primary image and a high-frequency, HF, component ( S HF ( m, n)) from a corresponding region ( S ( m, n)) of the secondary image, wherein the LF and HF components refer to a common cut-off frequency ( f c); c) combining the LF component and the HF component into a target image region ( T ( m, n)); d) repeating the preceding steps a) - c) for any remaining image regions; and e) merging all output target image regions thus obtained into a target image, characterized in that f) the HF component's relative contribution to the target image region increases gradually with the determined local noise level of the region of the primary image. a) determining a local noise level of a region ( P ( m, n)) of the primary image; b) deriving a low-frequency, LF, component ( P LF ( m, n)) from said region of the primary image and a high-frequency, HF, component ( S HF ( m, n)) from a corresponding region ( S ( m, n)) of the secondary image, wherein the LF and HF components refer to a common cut-off frequency ( f c); c) combining the LF component and the HF component into a target image region ( T ( m, n)); d) repeating the preceding steps a) - c) for any remaining image regions; and e) merging all output target image regions thus obtained into a target image, characterized in that f) the HF component's relative contribution to the target image region increases gradually with the determined local noise level of the region of the primary image.
A spring leg of a front fork not incorporated with a suspension spring made of a metal spring but incorporated with a suspension spring made of an air spring, comprising: a vehicle body side tube; an axle side tube being slidably engaged with the vehicle body side tube; a guide cylinder being provided in a center portion inside one of the vehicle body side tube and the axle side tube; a guide rod provided in a center portion inside the other of the vehicle body side tube and the axle side tube where the guide rod has a guide being inserted into the guide cylinder; an inner side air spring chamber defined by the guide of the guide rod inside the guide cylinder; a rod guide which is provided in the guide cylinder where the guide rod is inserted in and supported by the rod guide; and a rebound air spring chamber formed between the rod guide, and the guide of the guide rod inserted into the guide cylinder inside of the guide cylinder; at least one of sub-tanks (80, 110, 210, 510) each including an air chamber (81, 111, 211, 511) communicating with the rebound air spring chamber, characterized in that one of the at least one of sub-tanks (80, 110, 210, 510) is provided outside the vehicle body side tube and the axle side tube. a vehicle body side tube; an axle side tube being slidably engaged with the vehicle body side tube; a guide cylinder being provided in a center portion inside one of the vehicle body side tube and the axle side tube; a guide rod provided in a center portion inside the other of the vehicle body side tube and the axle side tube where the guide rod has a guide being inserted into the guide cylinder; an inner side air spring chamber defined by the guide of the guide rod inside the guide cylinder; a rod guide which is provided in the guide cylinder where the guide rod is inserted in and supported by the rod guide; and a rebound air spring chamber formed between the rod guide, and the guide of the guide rod inserted into the guide cylinder inside of the guide cylinder; at least one of sub-tanks (80, 110, 210, 510) each including an air chamber (81, 111, 211, 511) communicating with the rebound air spring chamber, characterized in that one of the at least one of sub-tanks (80, 110, 210, 510) is provided outside the vehicle body side tube and the axle side tube.
device for polishing semiconductor wafers, comprising at least two polishing machines for simultaneous polishing of semiconductor wafers on both sides; one or more rotor discs, which lie on a polishing cloth of a respective lower polishing disc of the polishing machines and have recesses for receiving semiconductor discs; a ceiling-mounted transport system for delivering a cassette containing semiconductor wafers to be polished; each of the polishing machines is associated with a vertical transport system for taking over the delivered cassette from the ceiling-mounted transport system and comprising an integrated wafer lifter for lifting the semiconductor wafers to be polished out of the cassette; a robot travelling independently to the at least two polishing machines and having a manipulator for taking over the semiconductor wafer to be polished from the wafer lifter, for inserting the semiconductor wafer to be polished into one of the recesses and, after completion of a polish, for lifting the polished semiconductor wafer out of the recess; associated with each of said polishing machines, an x/y linear unit having a wafer gripper for picking up the polished wafer from the manipulator of the self-propelled robot and depositing the polished wafer into a wet transport container having an integrated wafer receptacle; and a driverless transport vehicle for transporting the wet transport container to a cleaning system for polished semiconductor wafers. at least two polishing machines for simultaneous polishing of semiconductor wafers on both sides; one or more rotor discs, which lie on a polishing cloth of a respective lower polishing disc of the polishing machines and have recesses for receiving semiconductor discs; a ceiling-mounted transport system for delivering a cassette containing semiconductor wafers to be polished; each of the polishing machines is associated with a vertical transport system for taking over the delivered cassette from the ceiling-mounted transport system and comprising an integrated wafer lifter for lifting the semiconductor wafers to be polished out of the cassette; a robot travelling independently to the at least two polishing machines and having a manipulator for taking over the semiconductor wafer to be polished from the wafer lifter, for inserting the semiconductor wafer to be polished into one of the recesses and, after completion of a polish, for lifting the polished semiconductor wafer out of the recess; associated with each of said polishing machines, an x/y linear unit having a wafer gripper for picking up the polished wafer from the manipulator of the self-propelled robot and depositing the polished wafer into a wet transport container having an integrated wafer receptacle; and a driverless transport vehicle for transporting the wet transport container to a cleaning system for polished semiconductor wafers.
Insect catcher for catching and killing houseflies, the insect catcher includes at least one core placed in connection with an insect killing device, the core including built in electrical heating elements whereby the at least one core can be heated in at least one first area to generate a temperature between 20 and 60 degrees Celsius characterised in that the core can be heated in at least one other area in connection to the first area to generate a temperature of at least 60 degrees Celsius.
A positioning method based on a time difference of arrival, comprising: obtaining, by a network device, a first time difference of arrival, RSTD1; calculating, by the network device, a second time difference of arrival, RSTD2 based on initial location information of UE; calculating, by the network device, a target time alignment error, TAE based on the RSTD1 and the RSTD2; and performing, by the network device based on a target TAE, positioning based on a time difference of arrival, TDOA; wherein the calculating, by the network device, a target TAE based on the RSTD1 and the RSTD2 comprises: calculating, by the network device, a difference between the RSTD1 and the RSTD2, and using the difference between the RSTD1 and the RSTD2 as a TAE; calculating, by the network device, a difference between the RSTD1 and the TAE, and performing positioning calculation based on the difference between the RSTD1 and the TAE, to obtain new location information of the UE; obtaining, by the network device, a new RSTD1, calculating a difference between the new RSTD1 and a new RSTD2 calculated by using the new location information, and using the difference between the new RSTD1 and the new RSTD2 as a new TAE; and obtaining, by the network device, the target TAE based on the new TAE. obtaining, by a network device, a first time difference of arrival, RSTD1; calculating, by the network device, a second time difference of arrival, RSTD2 based on initial location information of UE; calculating, by the network device, a target time alignment error, TAE based on the RSTD1 and the RSTD2; and performing, by the network device based on a target TAE, positioning based on a time difference of arrival, TDOA; wherein the calculating, by the network device, a target TAE based on the RSTD1 and the RSTD2 comprises: calculating, by the network device, a difference between the RSTD1 and the RSTD2, and using the difference between the RSTD1 and the RSTD2 as a TAE; calculating, by the network device, a difference between the RSTD1 and the TAE, and performing positioning calculation based on the difference between the RSTD1 and the TAE, to obtain new location information of the UE; obtaining, by the network device, a new RSTD1, calculating a difference between the new RSTD1 and a new RSTD2 calculated by using the new location information, and using the difference between the new RSTD1 and the new RSTD2 as a new TAE; and obtaining, by the network device, the target TAE based on the new TAE. calculating, by the network device, a difference between the RSTD1 and the RSTD2, and using the difference between the RSTD1 and the RSTD2 as a TAE; calculating, by the network device, a difference between the RSTD1 and the TAE, and performing positioning calculation based on the difference between the RSTD1 and the TAE, to obtain new location information of the UE; obtaining, by the network device, a new RSTD1, calculating a difference between the new RSTD1 and a new RSTD2 calculated by using the new location information, and using the difference between the new RSTD1 and the new RSTD2 as a new TAE; and obtaining, by the network device, the target TAE based on the new TAE.
Chain for a screen device, consisting of a plurality of rigid chain links and of a flexible traction means that connects the chain links, the flexible traction means being a ball string that consists of a string and of balls arranged thereon at intervals, and the balls being received in openings of the chain links, wherein two opposite, unilaterally open slots are provided in the circumference of each opening, in which the string is received, the chain link having two side walls that are connected by a web and form an H shape in cross-section, and the openings being arranged in the web.
Method for generating a character string for systems for cryptography, statistics, simulation, randomisation, fruit machines and the like, characterised in that a first character string (mother$) is provided, wherein the first character string (mother$) is not used directly in the system but instead a second character string (work$1) is generated from the first character string (mother$), wherein the second character string (work$1) is divided into two partial lengths (true$, untrue$) in order to generate a third character string (work$2), wherein one partial length undergoes logical XOR coding with the other partial length, preferably undergoes logical expanded XOR coding, wherein the second character string (work$1) undergoes logical XOR coding with the third character string (work$2), preferably undergoes logical expanded XOR coding, and the result is used in the system, wherein one of the two partial lengths (true$) contains only characters or bit sequences that are contained in a fourth character string (ZZ$) that is provided, and the other of the two partial lengths (untrue$) contains only characters or bit sequences that are not contained in the fourth character string (ZZ$), such that, although an attack on the system may disclose the second character string (work$1) or further character strings (work$2, code$) generated therefrom, the first character string (mother$) is provided with a very high level of protection.