Abstract: An elastic structure between two objects, consisting of a first object provided with at least one first side, a second object provided with at least one second side, and an elastic connecting object that is connected between the first object and the second object, wherein the first side and the second side mutually correspond. The elastic connecting object is provided with a first connecting portion that connects to the first side, a second connecting portion that connects to the second side, and an elastic connecting portion that connects between the first connecting portion and the second connecting portion. Accordingly, the elastic connecting portion is provided with an elastic restoring force, which enables the second connecting portion and the first connecting portion to realize an elastic displacement function that enables achieving mutually relative up/down elastic displacement positions between the first object and the second object.

Abstract: A method for manufacturing an elastic structure between two objects, in which the manufacturing method primarily consists of disposing a first object and a second object into a mold having a molding space and a flow channel, causing portions of the first object and the second object to protrude within the molding space; injecting a liquid plastic material into the molding space, causing the plastic material to cover the portions of the first object and the second object protruding into the molding space; and forming the elastic structure that connects between the first object and the second object after the liquid plastic material cools down and takes shape within the molding space. The elastic structure formed comprises two connecting portions respectively covering the first object and the second object, and an elastic portion located between the two connecting portions.

Abstract: The present disclosure relates to the technical field of electronic devices, and discloses a method and an apparatus for controlling motor vibration. The method includes: obtaining an input signal based on an expected motor vibration curve, inputting a digital signal sequence of the input signal to an equalizer, and obtaining an output signal after processing by the equalizer, and inputting the output signal to a motor to control vibration of the motor, where the equalizer is a digital filter constructed based on a damping factor ? and a resonance frequency ?n of the motor, and a preset system sampling frequency fs, a preset damping factor ?d, and a preset cut-off frequency ?d. The method and apparatus provided in embodiments of the present disclosure have an advantage that an actual vibration effect of the motor can be consistent with an expected motor vibration curve.

Abstract: Embodiments of the present disclosure relate to the technical field of electronic devices, and a method for generating a motor brake signal is disclosed. In the present disclosure, the method for generating a motor brake signal includes the following steps: S1: controlling a motor by using different brake signals respectively to obtain vibration margins of the motor corresponding to the brake signals; and S2: selecting, from the brake signals, a brake signal with superior performance as the motor brake signal based on the vibration margins of the motor, wherein the smaller the vibration margin of the motor is, the more superior performance the corresponding brake signal has. The present disclosure further provides an apparatus for generating a motor brake signal. The method and the apparatus for generating a motor brake signal that are provided in the present disclosure enable the motor to have a good brake effect.

Abstract: There is provided a gene cassette for disruption of at least one target gene in a yeast cell, wherein the gene cassette comprises: (d) a URA3 gene capable of being used as a marker gene; (e) at least one gene disruption auxiliary (gda) sequence; and (f) an upstream and a downstream sequences of the target gene, wherein the gda sequence is at least 300 to 600 bp in length and selected from within the nucleotide sequence of SEQ ID NO:39.

Abstract: Disclosed are a method and system for an intermediate node, which negotiates a Quality of Service (QoS) contract with two or more secondary nodes, to maintain a record of previous contract agreements to use as the basis for future contracts and to select the negotiation order with the secondary nodes based on a configurable rule set. The intermediate node selects the secondary node which is deemed to be (predicted as) most restrictive to begin QoS negotiations. The intermediate node dynamically creates for a specific user a new QoS profile to begin the QoS negotiations based on current system loading and historical QoS precedents.

Abstract: Aminobisphosphonate pamidronate (PAM) can control Epstein-Barr virus (EBV) associated disorders in humanized mice through a V?9V?2-T-cell dependent mechanism. This suggests a strong potential for a therapeutic approach using PAM to boost human V?9V?2-T-cell immunity against EBV associated disorders, such as the lymphoproliferative disease (LPD), posttransplant lymphoproliferative disorder (PLPD), Hodgkin's disease, Burkitt's lymphoma, and nasopharyngeal carcinoma (NPC).

Abstract: A bonding pad structure including a first sub-bonding pad and a second sub-bonding pad and a touch panel are provided. The first sub-bonding pad has a first connection terminal at an opposite side of a first end terminal. A width of the first connection terminal is greater than a width of the first end terminal. The first sub-bonding pad has a second connection terminal at an opposite side of a second end terminal. A width of the second connection terminal is greater than a width of the second end terminal. The first connection terminal is close to the second end terminal and the second connection terminal is close to the first end terminal. A first outline of the first sub-bonding pad and a second outline of the second sub-bonding pad are formed as a pair in a complementary manner to construct a configuration of the bonding pad structure.

Abstract: Disclosed are a method and system for an intermediate node, which negotiates a Quality of Service (QoS) contract with two or more secondary nodes, to maintain a record of previous contract agreements to use as the basis for future contracts and to select the negotiation order with the secondary nodes based on a configurable rule set. The intermediate node selects the secondary node which is deemed to be (predicted as) most restrictive to begin QoS negotiations. The intermediate node dynamically creates for a specific user a new QoS profile to begin the QoS negotiations based on current system loading and historical QoS precedents.

Abstract: Disclosed are a method and system for an intermediate node, which negotiates a Quality of Service (QoS) contract with two or more secondary nodes, to maintain a record of previous contract agreements to use as the basis for future contracts and to select the negotiation order with the secondary nodes based on a configurable rule set. The intermediate node selects the secondary node which is deemed to be (predicted as) most restrictive to begin QoS negotiations. The intermediate node dynamically creates for a specific user a new QoS profile to begin the QoS negotiations based on current system loading and historical QoS precedents.

Abstract: Disclosed are a method and system for an intermediate node, which negotiates a Quality of Service (QoS) contract with two or more secondary nodes, to maintain a record of previous contract agreements to use as the basis for future contracts and to select the negotiation order with the secondary nodes based on a configurable rule set. The intermediate node selects the secondary node which is deemed to be (predicted as) most restrictive to begin QoS negotiations. The intermediate node dynamically creates for a specific user a new QoS profile to begin the QoS negotiations based on current system loading and historical QoS precedents.