mhurhangee/patent-ind-claim-en huggingface dataset:
A textile machine with a drum inter-storage of yarn, which comprises a driven rotary drum with a compensatory rotary arm , wherein the driven rotary drum is coupled with a first drive formed by an electric motor and the compensatory rotary arm is coupled with a second drive formed by an electric motor, whereby both the motors are connected to a control system of the textile machine, characterized in that the drum is pivotably mounted on a non-rotary central shaft , at the back end of which is placed a stator of the motor of an independently rotatable shaft with the movable arm , which is pivotably seated in the non-rotary central shaft and which carries a rotor of the motor of the moving arm , whereby on the non-rotary central shaft is further arranged the motor of the drum , whose rotor is firmly mounted on the drum .
A sound absorbing material comprising: a nonwoven fibrous insulation material comprising a carded web that is vertically lapped; and a flow resistive nonwoven facing laminated to one side of the nonwoven fiber insulation material ; characterized in that the flow resistive nonwoven facing comprises fibers having an average linear mass density of 1.5 g/9000 m to 4.5 g/9000 m (1.5 denier to 4.5 denier) and acts as a flow resistive membrane to increase the sound absorption of the material. a nonwoven fibrous insulation material comprising a carded web that is vertically lapped; and a flow resistive nonwoven facing laminated to one side of the nonwoven fiber insulation material ; characterized in that the flow resistive nonwoven facing comprises fibers having an average linear mass density of 1.5 g/9000 m to 4.5 g/9000 m (1.5 denier to 4.5 denier) and acts as a flow resistive membrane to increase the sound absorption of the material.
Automatic machine for the packaging, preservation and transport of surgical, histological, autopsy and cytological specimens by healthcare workers in safety comprising: - a histology container ; - a centring device of the container during loading; - a gripper ; - two load cells of the gripper ; - a gun bar code reader ; - a lifting plate ; - a suction cup for holding the container ; - two tanks of formalin ; - two load cells of the formalin ; - a pump for the formalin ; - a plate on which is supported a pre-treated aluminium disc ; - a sealing plate ; - a vacuum pump ; - a micro-pump ; - a support of the lifting plate ; - a vacuum chamber ; - a movement group for the horizontal displacement of the container from a position 1 (P1) to a position 2 (P2) and to a position 3 (P3); - a movement group for the vertical displacement of the container ; - a printer ; - a suction pump of the aluminium disc ; - an electronic control panel ; characterised in that the gripper is designed to automatically weigh the surgical specimen by means of load cells and transfer it in the positions of: - Position 1 (P1): loading and unloading of the histological container - weighing the specimen and recognising the capacity of the container by means of barcode; - Position 2 (P2): dosing the formalin - automatically weighing the formalin loaded by means of two load cells of the gripper ; - Position 3 (P3): vacuum/vacuum-packing by means of the vacuum pump , insertion of inert gas in the vacuum chamber and sealing with the pre-treated aluminium disc . - a histology container ; - a centring device of the container during loading; - a gripper ; - two load cells of the gripper ; - a gun bar code reader ; - a lifting plate ; - a suction cup for holding the container ; - two tanks of formalin ; - two load cells of the formalin ; - a pump for the formalin ; - a plate on which is supported a pre-treated aluminium disc ; - a sealing plate ; - a vacuum pump ; - a micro-pump ; - a support of the lifting plate ; - a vacuum chamber ; - a movement group for the horizontal displacement of the container from a position 1 (P1) to a position 2 (P2) and to a position 3 (P3); - a movement group for the vertical displacement of the container ; - a printer ; - a suction pump of the aluminium disc ; - an electronic control panel ; - Position 1 (P1): loading and unloading of the histological container - weighing the specimen and recognising the capacity of the container by means of barcode; - Position 2 (P2): dosing the formalin - automatically weighing the formalin loaded by means of two load cells of the gripper ; - Position 3 (P3): vacuum/vacuum-packing by means of the vacuum pump , insertion of inert gas in the vacuum chamber and sealing with the pre-treated aluminium disc .
A memory card comprising a memory , a processor , an interface and a positioning system , said memory card being configured for being inserted in a user apparatus , for storing a first encryption key generated depending on intended geo-parameter values and for, - when a command for writing first data in said memory is received from said user apparatus on the interface , encrypting said first data with said first encryption key by the processor and storing said encrypted first data in said memory , - when a user command for reading said first data stored in said memory is received from said user apparatus on the interface : obtaining current geo-parameter values (GV') from said positioning system , - generating by said processor from the obtained current geo-parameter values a second encryption key and an associated decryption key, - verifying if said first and second encryption keys match and when the keys match, decrypting said encrypted first data stored in said memory by the processor with said decryption key and outputting said decrypted encrypted first data to said user apparatus on said interface . - when a command for writing first data in said memory is received from said user apparatus on the interface , encrypting said first data with said first encryption key by the processor and storing said encrypted first data in said memory , - when a user command for reading said first data stored in said memory is received from said user apparatus on the interface : obtaining current geo-parameter values (GV') from said positioning system , - generating by said processor from the obtained current geo-parameter values a second encryption key and an associated decryption key, - verifying if said first and second encryption keys match and when the keys match, decrypting said encrypted first data stored in said memory by the processor with said decryption key and outputting said decrypted encrypted first data to said user apparatus on said interface . - when a user command for reading said first data stored in said memory is received from said user apparatus on the interface : obtaining current geo-parameter values (GV') from said positioning system , - generating by said processor from the obtained current geo-parameter values a second encryption key and an associated decryption key, - verifying if said first and second encryption keys match and when the keys match, decrypting said encrypted first data stored in said memory by the processor with said decryption key and outputting said decrypted encrypted first data to said user apparatus on said interface .
A multicast group establishment method in a fat-tree network, wherein the fat-tree network comprises N layers, the fat-tree network comprises multiple switching nodes, wherein a top layer is a core switching node, and each core switching node manages multiple multicast group addresses assigned by a management device of the fat-tree network; and the method comprises: sending, by a network node according to an address of a target multicast group, a join request to a management switching node of the target multicast group, wherein the join request is used to request to make the network node join the target multicast group, to establish the target multicast group, and the management switching node of the target multicast group is a core switching node to which the address of the target multicast group belongs, wherein the join request is self-routed from a bottom-layer switching node of the fat-tree network to the management switching node of the target multicast group in sequence according to the address of the target multicast group; wherein the multicast group address comprises N elements, and an address of the network node comprises N elements and the address of the network node and the multicast group address are both marked (i, j, k), and when j>N or k>N, then (i, j, k) is the multicast group address, otherwise (i, j, k) is the address of the network node, wherein k%N corresponds to a highest digit of an address of the core switching node, j%N corresponds to a second digit of the address of the core switching node, and a third digit of the core switching node is always the same. sending, by a network node according to an address of a target multicast group, a join request to a management switching node of the target multicast group, wherein the join request is used to request to make the network node join the target multicast group, to establish the target multicast group, and the management switching node of the target multicast group is a core switching node to which the address of the target multicast group belongs, wherein the join request is self-routed from a bottom-layer switching node of the fat-tree network to the management switching node of the target multicast group in sequence according to the address of the target multicast group; wherein the multicast group address comprises N elements, and an address of the network node comprises N elements and the address of the network node and the multicast group address are both marked (i, j, k), and when j>N or k>N, then (i, j, k) is the multicast group address, otherwise (i, j, k) is the address of the network node, wherein k%N corresponds to a highest digit of an address of the core switching node, j%N corresponds to a second digit of the address of the core switching node, and a third digit of the core switching node is always the same.
A set comprising a first panel with a first main plane and a first panel surface , a second panel with a second main plane and a second panel surface , a back panel and a mechanical locking device with a junction plane (J), wherein the mechanical locking device is configured for locking a first edge surface of the first panel to a second edge surface of the second panel at the junction plane (J), wherein the first panel , the second panel and the back panel are wood based furniture panels, wherein the first main plane is perpendicular to the second main plane and the junction plane (J) extends at a first angle (α) to the first main plane , wherein the mechanical locking device comprises at least one rod-shaped element at the first edge surface and at least one insertion groove at the second edge surface , wherein the rod-shaped element is configured to be inserted into the insertion groove , wherein the rod-shaped element extends at a second angle (β) from the first edge surface , wherein the insertion groove extends into the second edge surface at a third angle (γ) from the second edge surface , wherein the mechanical locking device further comprises a first panel groove on a first panel surface on the first panel , and/or a second panel groove on the second panel surface of the second panel , wherein the back panel is configured to cooperate with at least one of the first panel groove and the second panel groove , and at least one locking gear configured to cooperate with the back panel and at least one of the first panel groove and the second panel groove , for locking of the first panel to the second panel , and wherein the first angle (α) between the junction plane (J) and the first main plane is 45°. wherein the first main plane is perpendicular to the second main plane and the junction plane (J) extends at a first angle (α) to the first main plane , wherein the mechanical locking device comprises at least one rod-shaped element at the first edge surface and at least one insertion groove at the second edge surface , wherein the rod-shaped element is configured to be inserted into the insertion groove , wherein the rod-shaped element extends at a second angle (β) from the first edge surface , wherein the insertion groove extends into the second edge surface at a third angle (γ) from the second edge surface , wherein the mechanical locking device further comprises a first panel groove on a first panel surface on the first panel , and/or a second panel groove on the second panel surface of the second panel , wherein the back panel is configured to cooperate with at least one of the first panel groove and the second panel groove , and at least one locking gear configured to cooperate with the back panel and at least one of the first panel groove and the second panel groove , for locking of the first panel to the second panel , and wherein the first angle (α) between the junction plane (J) and the first main plane is 45°.
A cable comprising at least one elongate electrically conductive element and at least one electrically insulating layer obtained from a polymer composition, characterized in that the polymer composition comprises at least one polypropylene-based thermoplastic polymer material and a dielectric liquid comprising at least one mineral oil and at least one polar compound of benzophenone, acetophenone type or one of the derivatives thereof.
Apparatus for handling a container , comprising filling the container with a filling product, preferably with a beverage in a beverage bottling plant, wherein the apparatus has: a valve main body with an outlet for introducing the filling product into the container and with a swirl chamber which is fluidically connected to the outlet and is configured to induce a swirling motion in the filling product as the latter is being introduced into the container , wherein the valve main body has a main inlet which opens tangentially into the swirl chamber and is configured to introduce the filling product or a main component of the filling product into the swirl chamber in such a manner that a swirling motion is induced in the filling product in the swirl chamber ; a valve cone which is at least partially arranged in the valve body , defines an axial direction and through which a gas duct penetrates in the axial direction, wherein the valve cone is preferably configured so as to be displaceable in the axial direction for flow control of the filling product through the outlet ; and a sensor device with a sensor head which is configured to detect at least one signal and is arranged in the gas duct . a valve main body with an outlet for introducing the filling product into the container and with a swirl chamber which is fluidically connected to the outlet and is configured to induce a swirling motion in the filling product as the latter is being introduced into the container , wherein the valve main body has a main inlet which opens tangentially into the swirl chamber and is configured to introduce the filling product or a main component of the filling product into the swirl chamber in such a manner that a swirling motion is induced in the filling product in the swirl chamber ; a valve cone which is at least partially arranged in the valve body , defines an axial direction and through which a gas duct penetrates in the axial direction, wherein the valve cone is preferably configured so as to be displaceable in the axial direction for flow control of the filling product through the outlet ; and a sensor device with a sensor head which is configured to detect at least one signal and is arranged in the gas duct .
A method used to handle piece goods being moved one after another in at least one row and being transported as closed formation (F), the method characterised in that - spaces are generated in a first method step between successive groups of a defined number of piece goods , wherein the groups each have a defined number of piece goods , which number corresponds to the number of piece goods of a pre-group and/or layer arrangement to be formed or which number corresponds to a multiple of the number of piece goods of a pre-group and/or layer arrangement to be formed, - the piece goods are transported unspaced as closed formation within the groups; - the groups are transported to a seizing range of at least one manipulator , - in each instance at least one transported piece good is seized in the seizing range in a plurality of consecutive manipulation steps in a clamping and/or force-locking and/or form-locking manner from the closed formation (F) of the group by the at least one manipulator , is spatially separated from subsequent piece goods of the closed formation (F) of the group , and is brought into a defined relative target position and/or target alignment in relation to the in each instance subsequent piece goods , - a plurality of piece goods of the group are brought into in each instance different target positions and/or target alignments by in each instance consecutive manipulation steps, whereby in each instance pre-groups and/or layer arrangements for stackable piece good layers of an in each instance defined number of piece goods are formed. - spaces are generated in a first method step between successive groups of a defined number of piece goods , wherein the groups each have a defined number of piece goods , which number corresponds to the number of piece goods of a pre-group and/or layer arrangement to be formed or which number corresponds to a multiple of the number of piece goods of a pre-group and/or layer arrangement to be formed, - the piece goods are transported unspaced as closed formation within the groups; - the groups are transported to a seizing range of at least one manipulator , - in each instance at least one transported piece good is seized in the seizing range in a plurality of consecutive manipulation steps in a clamping and/or force-locking and/or form-locking manner from the closed formation (F) of the group by the at least one manipulator , is spatially separated from subsequent piece goods of the closed formation (F) of the group , and is brought into a defined relative target position and/or target alignment in relation to the in each instance subsequent piece goods , - a plurality of piece goods of the group are brought into in each instance different target positions and/or target alignments by in each instance consecutive manipulation steps, whereby in each instance pre-groups and/or layer arrangements for stackable piece good layers of an in each instance defined number of piece goods are formed.
A method of analyzing a part design, the method comprising: extracting one or more coupons and micro-coupons from one or more blanks of additive manufactured material made by an additive manufacturing process, the coupons being larger than the micro-coupons ; mechanically testing a material property and obtaining test results for each of the one or more coupons and micro-coupons from the one or more blanks and calculating a first correction factor based on a ratio of test results of the one or more micro-coupons from the one or more blanks relative to test results of the one or more coupons from the one or more blanks ; using the additive manufacturing process and making a part from the additive manufactured material according to the part design; extracting one or more micro-coupons from the part ; mechanically testing a material property and obtaining test results for each of the one or more micro-coupons from the part and calculating a second correction factor based on a ratio of test results of the one or more micro-coupons from the part relative to the test results of the one or more micro-coupons from the one or more blanks ; calculating a statistically-derived material property of the additive manufactured material based on the test results of the one or more coupons from the one or more blanks ; and calculating a capability value of the additive manufactured material by applying the first correction factor and the second correction factor to the statistically-derived material property of the additive manufactured material. extracting one or more coupons and micro-coupons from one or more blanks of additive manufactured material made by an additive manufacturing process, the coupons being larger than the micro-coupons ; mechanically testing a material property and obtaining test results for each of the one or more coupons and micro-coupons from the one or more blanks and calculating a first correction factor based on a ratio of test results of the one or more micro-coupons from the one or more blanks relative to test results of the one or more coupons from the one or more blanks ; using the additive manufacturing process and making a part from the additive manufactured material according to the part design; extracting one or more micro-coupons from the part ; mechanically testing a material property and obtaining test results for each of the one or more micro-coupons from the part and calculating a second correction factor based on a ratio of test results of the one or more micro-coupons from the part relative to the test results of the one or more micro-coupons from the one or more blanks ; calculating a statistically-derived material property of the additive manufactured material based on the test results of the one or more coupons from the one or more blanks ; and calculating a capability value of the additive manufactured material by applying the first correction factor and the second correction factor to the statistically-derived material property of the additive manufactured material.