mhurhangee/ep-ind-claims huggingface dataset:
An article of apparel comprising: (a) a first woven area, wherein the first woven area comprises a first weft density and a first yarn weight per unit length, wherein a first insulating layer is arranged in the first woven area, wherein the first insulating layer comprises a synthetic filling; (b) a second woven area arranged adjacent to the first woven area, wherein the second woven area comprises a second weft density and a second yarn weight per unit length; and (c) a third woven area arranged adjacent to the second woven area, wherein the third woven area comprises a third weft density and a third yarn weight per unit length, wherein a third insulating layer is arranged in the third woven area, wherein the third insulating layer comprises down feathers; wherein the second weft density in the second woven area changes gradually from the first weaving density to the third weft density, wherein the third weft density is at least twice as large as the first weft density; and / or wherein the second yarn weight per unit length in the second woven area changes gradually from the first yarn weight per unit length to the third yarn weight per unit length, wherein the third yarn weight per unit length is at least twice as large as the first yarn weight per unit length. (a) a first woven area, wherein the first woven area comprises a first weft density and a first yarn weight per unit length, wherein a first insulating layer is arranged in the first woven area, wherein the first insulating layer comprises a synthetic filling; (b) a second woven area arranged adjacent to the first woven area, wherein the second woven area comprises a second weft density and a second yarn weight per unit length; and (c) a third woven area arranged adjacent to the second woven area, wherein the third woven area comprises a third weft density and a third yarn weight per unit length, wherein a third insulating layer is arranged in the third woven area, wherein the third insulating layer comprises down feathers; wherein the second weft density in the second woven area changes gradually from the first weaving density to the third weft density, wherein the third weft density is at least twice as large as the first weft density; and / or wherein the second yarn weight per unit length in the second woven area changes gradually from the first yarn weight per unit length to the third yarn weight per unit length, wherein the third yarn weight per unit length is at least twice as large as the first yarn weight per unit length. wherein the second weft density in the second woven area changes gradually from the first weaving density to the third weft density, wherein the third weft density is at least twice as large as the first weft density; and / or wherein the second yarn weight per unit length in the second woven area changes gradually from the first yarn weight per unit length to the third yarn weight per unit length, wherein the third yarn weight per unit length is at least twice as large as the first yarn weight per unit length.
An imaging device for projecting individually controllable laser beams onto an imaging surface that is movable relative thereto in a reference X-direction, the device including a plurality of semiconductor chips each of which comprises a plurality of individually controllable laser beam emitting elements arranged in a two dimensional main array of M rows and N columns, the elements in each row having a uniform spacing A r and the elements in each column having a uniform spacing a c, wherein the chips are mounted on a support in such a manner that each pair of chips that are adjacent one another in a reference Y-direction, transverse to the X-direction, are offset from one another in the X-direction, and, when activated continuously, the emitted laser beams of the two chips of said pair trace on the imaging surface 2•M•N parallel lines that extend in the X-direction and are substantially uniformly spaced in the Y-direction, the laser beams of each chip tracing a set of M x N lines that do not overlap the set of lines of the other chip, wherein in addition to the M rows and N columns of elements of the main array, each chip comprises at least one additional column on a side of the main array, each containing at least one selectively operable laser emitting element capable of compensating for any misalignment in the Y-direction in the relative positioning of the adjacent chips on the support by tracing at least one additional line that lies between the two sets of M•N lines.
A chip, comprising a substrate, wherein the substrate comprises a first surface and a second surface which are arranged oppositely, wherein the chip further comprises a base layer in contact with the first surface of the substrate, an array including multiple channels arranged on the first surface of the substrate at intervals, two oppositely arranged side walls (111, 112) of each of the channels stretching along a longitudinal direction of a respective channel and intersecting at two ends of the respective channel to form two tapered tail ends with included angles; and an inlet hole and an outlet hole connected with the second surface being respectively provided on the two tapered tail ends; and the base layer comprises a transparent layer and a spacing layer arranged on a portion of a surface of the transparent layer between each of the channels, the spacing layer being a portion of the side walls (111, 112) of each of the channels, the spacing layer is a polymethylglutarimide layer, and the spacing layer is in contact with the first surface of the substrate, and grooves being provided on the spacing layer corresponding to positions where the channels are located. an array including multiple channels arranged on the first surface of the substrate at intervals, two oppositely arranged side walls (111, 112) of each of the channels stretching along a longitudinal direction of a respective channel and intersecting at two ends of the respective channel to form two tapered tail ends with included angles; and an inlet hole and an outlet hole connected with the second surface being respectively provided on the two tapered tail ends; and the base layer comprises a transparent layer and a spacing layer arranged on a portion of a surface of the transparent layer between each of the channels, the spacing layer being a portion of the side walls (111, 112) of each of the channels, the spacing layer is a polymethylglutarimide layer, and the spacing layer is in contact with the first surface of the substrate, and grooves being provided on the spacing layer corresponding to positions where the channels are located.
Handgrip for a handlebar of a motor vehicle, such as a motorbike, water motorcycle, snowmobile, quad bike, comprising a hollow cylinder-like inner part with an outer sheath side and an inner sheath side, a sensor electrode of a proximity sensor, which sensor electrode is arranged radially on the outside of the outer sheath side of the inner part, and a covering element which is arranged radially on the outside of the outer sheath side of the inner part by overmolding or injection molding and which covers the sensor electrode, wherein a proximity sensor circuit is electrically connected to the sensor electrode, characterized in that both the sensor electrode and the proximity sensor circuit are arranged on a common substrate of a circuit board (200, 200'), wherein the common substrate surrounds the inner part and, with at least a first section in which the substrate is flexibly formed, directly or indirectly bears against a cylindrical outer sheath surface section of the inner part, and the inner part has on its outer sheath side at least one radially outwardly pointing projection (103, 120) which extends through an associated hole portion (205, 206) of the first section of the substrate of the printed circuit board.
A modular electrode system for facilitating the introduction of a macromolecule into a cell of a selected tissue in a body or plant, comprising: (a) a plurality of needle electrodes for penetrating the selected tissue, the plurality of needle electrodes being mounted on a support structure; (b) a needle; (c) a programmable current pulse controller in electrical communication with a power source; characterized in that the plurality of needle electrodes are arranged in a spaced relationship and that the modular electrode system further comprises: (d) a constant-current pulse generator subsystem in electrical communication with the plurality of needle electrodes for applying a decentralized constant-current pulse between any plurality of electrodes, wherein the constant-current pulse generator subsystem comprises an electrical connector that provides a conductive link from a pulse controller to the plurality of needle electrodes; and (e) an impedance meter built into the programmable constant-current pulse controller; wherein the programmable constant-current pulse controller is capable of maintaining a constant-current electrical pulse through the plurality of needle electrodes by utilizing an impedance meter built into the programmable constant-current pulse controller to reduce the power accordingly as the impedance rises and prevent cell death. (a) a plurality of needle electrodes for penetrating the selected tissue, the plurality of needle electrodes being mounted on a support structure; (b) a needle; (c) a programmable current pulse controller in electrical communication with a power source; (d) a constant-current pulse generator subsystem in electrical communication with the plurality of needle electrodes for applying a decentralized constant-current pulse between any plurality of electrodes, wherein the constant-current pulse generator subsystem comprises an electrical connector that provides a conductive link from a pulse controller to the plurality of needle electrodes; and (e) an impedance meter built into the programmable constant-current pulse controller;
A breast massager (10, 20, 30) comprising - a support surface in a support plane arranged to extend substantially parallel to a skin of a user's breast, - an actuator, - at least two massaging protrusions (12,22,23) coupled to each other, the massaging protrusions (12,22,23) being linearly arranged parallel to the support plane and the actuator being arranged to drive the massaging protrusions (12,22,23) in a motion in a plane coinciding with the linear arrangement of the massaging protrusions (12,22,23) and perpendicular to the support plane, and the massaging protrusions (12,22,23) being arranged to extend through the support plane, characterised in that the motion of the massaging protrusions (12,22,23) is circular or elliptical, and in that the extension of the massaging protrusions (12,22,23) through the support plane varies during the circular or elliptical motion, the massaging protrusions (12,22,23) thus performing a movement mimicking a combing or peristaltic motion. - a support surface in a support plane arranged to extend substantially parallel to a skin of a user's breast, - an actuator, - at least two massaging protrusions (12,22,23) coupled to each other, the massaging protrusions (12,22,23) being linearly arranged parallel to the support plane and the actuator being arranged to drive the massaging protrusions (12,22,23) in a motion in a plane coinciding with the linear arrangement of the massaging protrusions (12,22,23) and perpendicular to the support plane, and the massaging protrusions (12,22,23) being arranged to extend through the support plane, characterised in that the motion of the massaging protrusions (12,22,23) is circular or elliptical, and in that the extension of the massaging protrusions (12,22,23) through the support plane varies during the circular or elliptical motion, the massaging protrusions (12,22,23) thus performing a movement mimicking a combing or peristaltic motion.
An absorbent composition comprising an amino-siloxane having structure (Ib): wherein R 1 is independently at each occurrence a C 1 -C 6 aliphatic or aromatic radical; R 2 is independently at each occurrence a C 2 -C 10 aliphatic or aromatic radical; R 3 is independently at each occurrence a hydrogen atom or a C 1 -C 6 aliphatic or aromatic radical; R 4 is independently at each occurrence a C 1 -C 18 aliphatic or aromatic radical or R 5, wherein R 5 comprises structure: wherein X is independently at each occurrence an oxygen atom or a sulfur atom.
A kinetic ram for a blowout preventer, comprising: a first pressure chamber having a first piston movably disposed therein; a first gas generating charge disposed at one end of the first pressure chamber; a first ram coupled to the first piston on a side of the first piston opposed to the first gas generating charge; the first ram arranged to move across a through bore in a first blowout preventer housing disposed at an opposed end of the first pressure chamber when the first gas generating charge is actuated to create a pressure increase within the first pressure chamber; characterized by at least one burst disk to allow a volume increase in the first pressure chamber in the event pressure in the first pressure chamber rises to a determined level a first pressure chamber having a first piston movably disposed therein; a first gas generating charge disposed at one end of the first pressure chamber; a first ram coupled to the first piston on a side of the first piston opposed to the first gas generating charge; the first ram arranged to move across a through bore in a first blowout preventer housing disposed at an opposed end of the first pressure chamber when the first gas generating charge is actuated to create a pressure increase within the first pressure chamber; characterized by
A method for producing a reflector on a reflector base body, which is made of glass and which is formed as lamp bulb of an infrared radiator, comprising a curved surface, which, in the area of a coating surface, is provided with a metal-containing, in particular precious metal-containing, reflective reflector layer, in that a metal-containing coating liquid is applied to the coating surface and is subjected to a burn-in treatment by forming the reflector layer at a temperature below a softening temperature of the glass, characterised in that the application of the coating liquid takes place in a contact-free manner by means of inkjet technology, in that the coating liquid is moved with a print head, which is equipped with a plurality of nozzles and which can be moved relative to the coating surface at least in a movement plane, and is sprayed by means of said print head onto the coating surface under pressure and in the form of drops exiting the nozzles.
A computer-implemented method for predicting a failure state of an automated analyzer for analyzing a biological sample, the method comprising: generating a prediction algorithm for predicting a failure state of an automated analyzer based on historic analyzer data (5a; 7a; 8a), wherein the historic data includes historic data regarding the occurrence of failure states (7a; 8a) and historic calibration data and/or quality control data, wherein the prediction algorithm is adapted to predict a failure state of the automated analyzer based on calibration data and/or quality control data (5; 52) generated by an automated analyzer; obtaining calibration data and/or quality control data (5; 52) of the automated analyzer; and processing the calibration data and/or quality control data (5; 52) by using the prediction algorithm to predict a failure state of the automated analyzer, characterized in that the generating includes training an initial prediction algorithm using the historic data regarding the occurrence of failure states (7a; 8a) and the historic calibration data and/or quality control data, wherein the prediction algorithm is configured to have one output state indicating that a failure state is expected and a second output state indicating that no failure state is expected, wherein generating the predicting algorithm comprises determining a length of a reactive interval between a period of time in which the quality control and/or the calibration data is used to predict a failure event and the failure event. generating a prediction algorithm for predicting a failure state of an automated analyzer based on historic analyzer data (5a; 7a; 8a), wherein the historic data includes historic data regarding the occurrence of failure states (7a; 8a) and historic calibration data and/or quality control data, wherein the prediction algorithm is adapted to predict a failure state of the automated analyzer based on calibration data and/or quality control data (5; 52) generated by an automated analyzer; obtaining calibration data and/or quality control data (5; 52) of the automated analyzer; and processing the calibration data and/or quality control data (5; 52) by using the prediction algorithm to predict a failure state of the automated analyzer, characterized in that the generating includes training an initial prediction algorithm using the historic data regarding the occurrence of failure states (7a; 8a) and the historic calibration data and/or quality control data, wherein the prediction algorithm is configured to have one output state indicating that a failure state is expected and a second output state indicating that no failure state is expected, wherein generating the predicting algorithm comprises determining a length of a reactive interval between a period of time in which the quality control and/or the calibration data is used to predict a failure event and the failure event.
Method for the transmission ofdata via a bus network, to which a plurality of subscribers are connected, wherein the bus network used is a master/slave-based ring bus, via which, for each communication cycle, data are transmitted in each case individually by means of a data transmission protocol, which is designed for point-to-point data transmission, from a subscriber (master) designed as the master to the further subscribers (TNx, STNx), characterised in that within the point-to-point data transmission from a subscriber (broadcaster) designed with suitable means, a broadcast message, within which selected data can be transmitted in a broadcast transmission mode, is incorporated such that it is located at clearly defined locations at specifiable points in time or cycle portions and access by selected subscribers is guaranteed accordingly, and it is simultaneously transmitted during each communication cycle.
A method for partitioning radio transmission resources within a telecommunication network, the method comprising • preparing a handover of a user equipment - from a source access point being assigned to a source side of the telecommunication network - to a target access point (RN2c) being assigned to a target side of the telecommunication network, • transferring a pre-announcement message (110, 120, 130) from the source side to the target side indicating a possible handover of the user equipment, wherein the pre-announcement message (110, 120, 130) is indicative for the amount of data traffic being associated with the user equipment and indicates a time duration during which a partitioning of radio transmission resources in order to be ready for accepting the amount of data traffic being associated with the user equipment is valid, and • partitioning the radio transmission resources on the target side of the telecommunication network based on the pre-announcement message (110, 120, 130). • preparing a handover of a user equipment - from a source access point being assigned to a source side of the telecommunication network - to a target access point (RN2c) being assigned to a target side of the telecommunication network, - from a source access point being assigned to a source side of the telecommunication network - to a target access point (RN2c) being assigned to a target side of the telecommunication network, • transferring a pre-announcement message (110, 120, 130) from the source side to the target side indicating a possible handover of the user equipment, wherein the pre-announcement message (110, 120, 130) is indicative for the amount of data traffic being associated with the user equipment and indicates a time duration during which a partitioning of radio transmission resources in order to be ready for accepting the amount of data traffic being associated with the user equipment is valid, and • partitioning the radio transmission resources on the target side of the telecommunication network based on the pre-announcement message (110, 120, 130).
A bottle cap adapter for supplying liquids, particularly viscous liquids, comprising: a body part; and a vent tube comprising a first opening and a second opening, the first opening being configured to be put inside a bottle in the vicinity of the bottom of the bottle, wherein the body part further comprises a first surface and a second surface, the first surface being perpendicular to the vent tube and the second surface being parallel to or tilted to the first surface, wherein the body part further comprises a channel from the first surface to the second surface, wherein at least one part of the channel comprises a connector extending to the second surface, the connector being complementary to a connector of the bottle, wherein the body part is further configured to be coupled to a bottle supply system, and wherein the vent tube is at least partially located in the channel of the body part. a body part; and a vent tube comprising a first opening and a second opening, the first opening being configured to be put inside a bottle in the vicinity of the bottom of the bottle, wherein the body part further comprises a first surface and a second surface, the first surface being perpendicular to the vent tube and the second surface being parallel to or tilted to the first surface, wherein the body part further comprises a channel from the first surface to the second surface, wherein at least one part of the channel comprises a connector extending to the second surface, the connector being complementary to a connector of the bottle, wherein the body part is further configured to be coupled to a bottle supply system, and wherein the vent tube is at least partially located in the channel of the body part.
A safety assembly for braking an elevator car comprising: a safety brake movable between a non-braking position and a braking position; a first electronic safety actuator; and a second electronic safety actuator; characterized by the first electronic safety actuator being operably coupled to the safety brake via a first link member; and the second electronic safety actuator being operably coupled to the safety brake via a second link member; wherein operation of the first electronic safety actuator applies a force to the first link member to move the safety brake from the non-braking position to the braking position and operation of the second electronic safety actuator applies a force to the second link member to move the safety brake from the non-braking position to the braking position. a safety brake movable between a non-braking position and a braking position; a first electronic safety actuator; and a second electronic safety actuator; characterized by the first electronic safety actuator being operably coupled to the safety brake via a first link member; and the second electronic safety actuator being operably coupled to the safety brake via a second link member; wherein operation of the first electronic safety actuator applies a force to the first link member to move the safety brake from the non-braking position to the braking position and operation of the second electronic safety actuator applies a force to the second link member to move the safety brake from the non-braking position to the braking position.