mhurhangee/ep-ind-claims huggingface dataset:
A calendar display mechanism for a watch movement, comprising a date mobile designed to control the movements of a date display member (10; 202) and to be able to make a complete turn on itself in a maximum number of p days, during long months, a mechanism for actuating said date mobile arranged to rotate the latter by at least one step per day, a month mobile arranged to be actuated by said date mobile at each complete turn of the latter, a correction device for short months comprising a month cam carried by said month mobile and comprising a plurality of peripheral sectors, each of which is associated with a given month in a cycle of n years, n being greater than one, the average radius of each of said peripheral sectors being a function of the length of the associated month, said mechanism for actuating said date mobile being arranged to interact with said month cam and allow actuation of said date mobile by at least one additional step at the end of each short month, having a number of days less than p, characterized in that said month mobile carries a year cam indexed on said month cam and comprising n series of steps each of which is associated with a given year, each series of steps comprising a number m of steps corresponding to the number of months of the associated year, and in that the display mechanism comprises a rotatable month rocker carrying a month feeler held in contact with said year cam to define the angular orientation of said month rocker, the latter also being kinematically linked to a month display mobile to drive it in retrograde motion. a date mobile designed to control the movements of a date display member (10; 202) and to be able to make a complete turn on itself in a maximum number of p days, during long months, a mechanism for actuating said date mobile arranged to rotate the latter by at least one step per day, a month mobile arranged to be actuated by said date mobile at each complete turn of the latter, a correction device for short months comprising a month cam carried by said month mobile and comprising a plurality of peripheral sectors, each of which is associated with a given month in a cycle of n years, n being greater than one, the average radius of each of said peripheral sectors being a function of the length of the associated month, said mechanism for actuating said date mobile being arranged to interact with said month cam and allow actuation of said date mobile by at least one additional step at the end of each short month, having a number of days less than p, characterized in that said month mobile carries a year cam indexed on said month cam and comprising n series of steps each of which is associated with a given year, each series of steps comprising a number m of steps corresponding to the number of months of the associated year, and in that the display mechanism comprises a rotatable month rocker carrying a month feeler held in contact with said year cam to define the angular orientation of said month rocker, the latter also being kinematically linked to a month display mobile to drive it in retrograde motion.
A method for preparing a nucleic acid for sequencing, the method comprising: forming a droplet comprising a nucleic acid molecule hybridized to short fragments with ends comprising adapters and a plurality of adapter-specific barcoded primers that identify the droplet; performing a reaction with the plurality of barcoded primers in the droplet to generate in the droplet barcoded templates that are complementary to different regions along the nucleic acid molecule; and releasing the barcoded templates from the droplet. forming a droplet comprising a nucleic acid molecule hybridized to short fragments with ends comprising adapters and a plurality of adapter-specific barcoded primers that identify the droplet; performing a reaction with the plurality of barcoded primers in the droplet to generate in the droplet barcoded templates that are complementary to different regions along the nucleic acid molecule; and releasing the barcoded templates from the droplet.
A computer-implemented method for producing a message authentication tag (336, 908, 912), the method comprising: obtaining a message; segmenting, by an electronic processor, the message into a number of equal sized message blocks (410, 412, 414) comprising a first message block, one or more subsequent message blocks, and a final message block; performing, by the electronic processor, a first bit-mixing operation on the first message block with an initialization value; performing, by the electronic processor, subsequent bit-mixing operations (328, 332) on the one or more subsequent message blocks and the final message block with a previous message block; producing (1025, 1040), by the electronic processor, the message authentication tag based on the first bit-mixing operation and the subsequent bit-mixing operations; wherein the step of producing the message authentication tag comprises: performing a final bit-mixing operation on an output of the bit-mixing operation on the final message block and a concatenation of a length of authentication data and a length of encrypted text blocks; and performing an exclusive OR operation with an output of the final bit-mixing operation and an encrypted null counter (302, 304, 306) that is encrypted (308, 310, 312) using a block encryption algorithm, under a secret key, to produce the message authentication tag. obtaining a message; segmenting, by an electronic processor, the message into a number of equal sized message blocks (410, 412, 414) comprising a first message block, one or more subsequent message blocks, and a final message block; performing, by the electronic processor, a first bit-mixing operation on the first message block with an initialization value; performing, by the electronic processor, subsequent bit-mixing operations (328, 332) on the one or more subsequent message blocks and the final message block with a previous message block; producing (1025, 1040), by the electronic processor, the message authentication tag based on the first bit-mixing operation and the subsequent bit-mixing operations; wherein the step of producing the message authentication tag comprises: performing a final bit-mixing operation on an output of the bit-mixing operation on the final message block and a concatenation of a length of authentication data and a length of encrypted text blocks; and performing an exclusive OR operation with an output of the final bit-mixing operation and an encrypted null counter (302, 304, 306) that is encrypted (308, 310, 312) using a block encryption algorithm, under a secret key, to produce the message authentication tag. performing a final bit-mixing operation on an output of the bit-mixing operation on the final message block and a concatenation of a length of authentication data and a length of encrypted text blocks; and performing an exclusive OR operation with an output of the final bit-mixing operation and an encrypted null counter (302, 304, 306) that is encrypted (308, 310, 312) using a block encryption algorithm, under a secret key, to produce the message authentication tag.
A non-durable flexible container comprising: a structural support frame at least one product volume; and at least one flexible valve that is closed below a critical pressure buildup inside the product volume, wherein the valve comprises at least one tension-inducing element, characterized in that at least one of the tension-inducing elements is an expandable volume, the term expandable volume referring to a fillable space made from one or more flexible materials, wherein the space is configured to be at least partially filled with one or more expansion materials. a structural support frame at least one product volume; and at least one flexible valve that is closed below a critical pressure buildup inside the product volume, wherein the valve comprises at least one tension-inducing element, characterized in that at least one of the tension-inducing elements is an expandable volume, the term expandable volume referring to a fillable space made from one or more flexible materials, wherein the space is configured to be at least partially filled with one or more expansion materials.
A ventilating device which comprises: a casing in which are formed an air supply passageway for establishing connection of an outdoor inlet opening and an indoor air supply opening, and an air exhaust passageway for establishing connection of an indoor inlet opening and an outdoor air exhaust opening; and a heat exchange element (61, 62) which is housed within the casing for effecting heat exchange between outdoor air flowing through the air supply passageway and indoor air flowing through the air exhaust passageway; wherein the outdoor inlet opening, the indoor air supply opening, the indoor inlet opening and the outdoor air exhaust opening are formed in an upper section of the casing, characterized in that: a first passageway and a second passageway are formed as to overlap with each other along an outside surface of the casing, the first passageway being located nearer to the outside surface of the casing, and the second passageway being located nearer to an inside of the casing, the first passage way is located adjacent to the outside surface and upstream of the heat exchange element (61, 62) such that the outdoor air before entry into the heat exchange element (61, 62) flows therethrough; the second passageway is located adjacent to the first passageway but not adjacent to the outside surface of the casing, and the second passageway is located downstream of the heat exchange element (61, 62) such that the indoor air after passage through the heat exchange element (61, 62) flows therethrough. a casing in which are formed an air supply passageway for establishing connection of an outdoor inlet opening and an indoor air supply opening, and an air exhaust passageway for establishing connection of an indoor inlet opening and an outdoor air exhaust opening; and a heat exchange element (61, 62) which is housed within the casing for effecting heat exchange between outdoor air flowing through the air supply passageway and indoor air flowing through the air exhaust passageway; wherein the outdoor inlet opening, the indoor air supply opening, the indoor inlet opening and the outdoor air exhaust opening are formed in an upper section of the casing, a first passageway and a second passageway are formed as to overlap with each other along an outside surface of the casing, the first passageway being located nearer to the outside surface of the casing, and the second passageway being located nearer to an inside of the casing, the first passage way is located adjacent to the outside surface and upstream of the heat exchange element (61, 62) such that the outdoor air before entry into the heat exchange element (61, 62) flows therethrough; the second passageway is located adjacent to the first passageway but not adjacent to the outside surface of the casing, and the second passageway is located downstream of the heat exchange element (61, 62) such that the indoor air after passage through the heat exchange element (61, 62) flows therethrough.
An autofocus subsystem comprising: an autofocus light source; optical components that direct light from the autofocus light source into the optical path of an optical instrument; a focusing lens that focuses autofocus light returned to the autofocus system from the optical path of the optical instrument onto a photodetector; and an autofocus rotor interposed between the focusing lens and photodetector that implements an optical-axis scan to determine the focal point of the focusing lens for autofocus light back-reflected from a surface in the optical path of the optical instrument; wherein the autofocus rotor includes a cylindrical rotor that is rotated about a central axis; characterized in that the autofocus rotor includes: a number of hollow, circularly disposed, cylindrical shafts that span the rotor in the direction of the central axis; and a cylindrical transparent rod, or focus-extension window, mounted within each cylindrical shaft, each cylindrical transparent rod, or focus-extension window, having a particular thickness and/or particular refractive index. an autofocus light source; optical components that direct light from the autofocus light source into the optical path of an optical instrument; a focusing lens that focuses autofocus light returned to the autofocus system from the optical path of the optical instrument onto a photodetector; and an autofocus rotor interposed between the focusing lens and photodetector that implements an optical-axis scan to determine the focal point of the focusing lens for autofocus light back-reflected from a surface in the optical path of the optical instrument; wherein the autofocus rotor includes a cylindrical rotor that is rotated about a central axis; characterized in that the autofocus rotor includes: a number of hollow, circularly disposed, cylindrical shafts that span the rotor in the direction of the central axis; and a cylindrical transparent rod, or focus-extension window, mounted within each cylindrical shaft, each cylindrical transparent rod, or focus-extension window, having a particular thickness and/or particular refractive index. a number of hollow, circularly disposed, cylindrical shafts that span the rotor in the direction of the central axis; and a cylindrical transparent rod, or focus-extension window, mounted within each cylindrical shaft, each cylindrical transparent rod, or focus-extension window, having a particular thickness and/or particular refractive index.
A wellbore retrieval tool for retrieving an object (0912, 1412) in a wellbore casing, comprising: a tool body configured to be inserted into a setting tool and to be transported along said wellbore casing; and a tension arm (0970, 1470) provided at one end of the tool body and configured to allow the object (0912, 1412) to move past the tension arm (0970, 1470); said tool body and tension arm (0970, 1470) being sized and configured to trap and hold said object (0912, 1412) to be retrieved within said tool body; wherein, when said object (0912, 1412) is retrieved from said wellbore casing, said wellbore retrieval tool is transported together with said setting tool into said wellbore casing to a location proximal to said object (0912, 1412) such that said object (0912, 1412) is drawn by well flow back past the tension arm (0970, 1470) in said tool body for retrieval. a tool body configured to be inserted into a setting tool and to be transported along said wellbore casing; and a tension arm (0970, 1470) provided at one end of the tool body and configured to allow the object (0912, 1412) to move past the tension arm (0970, 1470); said tool body and tension arm (0970, 1470) being sized and configured to trap and hold said object (0912, 1412) to be retrieved within said tool body; wherein, when said object (0912, 1412) is retrieved from said wellbore casing, said wellbore retrieval tool is transported together with said setting tool into said wellbore casing to a location proximal to said object (0912, 1412) such that said object (0912, 1412) is drawn by well flow back past the tension arm (0970, 1470) in said tool body for retrieval.
A magnetic fastener system comprising: a first component including: a first support strip; a plurality of first magnetic coupling components coupled to the first support strip and spaced along a length thereof, and a second component including: a second support strip; and a plurality of second magnetic coupling components coupled to the second support strip and spaced along a length thereof, wherein each second magnetic coupling component is at least one of a magnet or a magnetizable material, wherein the second magnetic coupling components are configured to be magnetically attracted to the first magnetic coupling components, characterized in that each first magnetic coupling component includes a backing member made of a non-magnetic, magnetizable material, and a magnet magnetically coupled to an associated backing member. a first component including: a first support strip; a plurality of first magnetic coupling components coupled to the first support strip and spaced along a length thereof, and a first support strip; a plurality of first magnetic coupling components coupled to the first support strip and spaced along a length thereof, and a second component including: a second support strip; and a plurality of second magnetic coupling components coupled to the second support strip and spaced along a length thereof, wherein each second magnetic coupling component is at least one of a magnet or a magnetizable material, wherein the second magnetic coupling components are configured to be magnetically attracted to the first magnetic coupling components, a second support strip; and a plurality of second magnetic coupling components coupled to the second support strip and spaced along a length thereof, wherein each second magnetic coupling component is at least one of a magnet or a magnetizable material, wherein the second magnetic coupling components are configured to be magnetically attracted to the first magnetic coupling components,
Method for configuring a vehicle for a user, which vehicle is intended for a plurality of users, comprising the steps: - storing user data, the data of a respective user being compiled in a user account, and available vehicle properties of the vehicle in a memory unit, - defining a configuration for the vehicle, and - storing the configuration in the memory unit, - transmitting the configuration to the vehicle, characterised in that - the user data comprise an association with a user group, which user group is linked to a vehicle group, for which a specific availability of functions and services in the vehicle is defined, and - the definition of the configuration for the vehicle is done by assigning vehicle properties of the vehicle defined in the vehicle group associated with the user group of the respective user, and - by transmitting the configuration to the vehicle, vehicle properties, in particular services, functions and setting options, are activated, deactivated or altered for the user in accordance with the configuration, wherein vehicle modules (30, 31), with which respective vehicle properties can be set, are activated or deactivated for the user and thereby for the user only those display and/or operating elements that are available to the user in accordance with the configuration are made visible. - storing user data, the data of a respective user being compiled in a user account, and available vehicle properties of the vehicle in a memory unit, - defining a configuration for the vehicle, and - storing the configuration in the memory unit, - transmitting the configuration to the vehicle, characterised in that - the user data comprise an association with a user group, which user group is linked to a vehicle group, for which a specific availability of functions and services in the vehicle is defined, and - the definition of the configuration for the vehicle is done by assigning vehicle properties of the vehicle defined in the vehicle group associated with the user group of the respective user, and - by transmitting the configuration to the vehicle, vehicle properties, in particular services, functions and setting options, are activated, deactivated or altered for the user in accordance with the configuration, wherein vehicle modules (30, 31), with which respective vehicle properties can be set, are activated or deactivated for the user and thereby for the user only those display and/or operating elements that are available to the user in accordance with the configuration are made visible.
A bispecific antibody comprising two heavy chains and four light chains, wherein each heavy chain comprises a. a Fc region of an immunoglobulin comprising Hinge-CH2-CH3 domains, b. which Fc region is linked to Fab heavy chain CH1-VH of antibody 1 by said Hinge domain, c. which in turn is linked to Fab heavy chain CH1-VH of antibody 2, by a polypeptide linker sequence, wherein the N-term of each arm of the Fab heavy chain of Ab1 is linked via a polypeptide linker to the C-term of CH1-VH of Ab2, and the four light chains comprise Fab light chains of Ab1 and Fab light chains of Ab2 associated with their cognate heavy chain domains; wherein Ab1 and Ab2, being different, independently are selected from the group consisting of cetuximab or a mutated derivative thereof, on the one hand, and trastuzumab, or a mutated derivative thereof, on the other hand, wherein the mutated derivative comprises a VH chain that comprises an amino acid sequence at least 80% identical to the sequence of cetuximab or trastuzumab, respectively, and a VL chain that has an amino acid sequence at least 80% identical to cetuximab or trastuzumab, respectively, and is capable of binding to EGFR and HER2, respectively. wherein each heavy chain comprises a. a Fc region of an immunoglobulin comprising Hinge-CH2-CH3 domains, b. which Fc region is linked to Fab heavy chain CH1-VH of antibody 1 by said Hinge domain, c. which in turn is linked to Fab heavy chain CH1-VH of antibody 2, by a polypeptide linker sequence, wherein the N-term of each arm of the Fab heavy chain of Ab1 is linked via a polypeptide linker to the C-term of CH1-VH of Ab2, a. a Fc region of an immunoglobulin comprising Hinge-CH2-CH3 domains, b. which Fc region is linked to Fab heavy chain CH1-VH of antibody 1 by said Hinge domain, c. which in turn is linked to Fab heavy chain CH1-VH of antibody 2, by a polypeptide linker sequence, wherein the N-term of each arm of the Fab heavy chain of Ab1 is linked via a polypeptide linker to the C-term of CH1-VH of Ab2, and the four light chains comprise Fab light chains of Ab1 and Fab light chains of Ab2 associated with their cognate heavy chain domains;
A vehicle driving force control device for controlling a driving force of a motive power source (E, M) in accordance with an operation of a handlebar grip attached to a vehicle, the handlebar grip being nonrotatably secured to the vehicle, the vehicle driving force control device comprising: twisting force detection means for detecting a twisting force that is oriented in one direction or in the other direction and applied to the handlebar grip; and a control section (50, 50a) configured to control the driving force in accordance with the detected twisting force, wherein the control section (50, 50a) exercises control to increase the driving force in accordance with the twisting force oriented in the one direction; and vehicle speed detection means for detecting a vehicle speed of the vehicle; and characterized in that the vehicle driving force control device further comprises running resistance calculation means for determining a running resistance (f) based on the vehicle speed, wherein, if the twisting force remains at the predetermined value or within the first predetermined range (ΔS 1) for a predetermined period of time, the control section (50, 50a) executes cruise control for balancing the driving force with the running resistance (f). twisting force detection means for detecting a twisting force that is oriented in one direction or in the other direction and applied to the handlebar grip; and a control section (50, 50a) configured to control the driving force in accordance with the detected twisting force, wherein the control section (50, 50a) exercises control to increase the driving force in accordance with the twisting force oriented in the one direction; and vehicle speed detection means for detecting a vehicle speed of the vehicle; and the vehicle driving force control device further comprises running resistance calculation means for determining a running resistance (f) based on the vehicle speed, wherein, if the twisting force remains at the predetermined value or within the first predetermined range (ΔS 1) for a predetermined period of time, the control section (50, 50a) executes cruise control for balancing the driving force with the running resistance (f).